mhurhangee/ep-ind-claims huggingface dataset:
A composition for use in suppressing cancer cell growth or treating cancer in a subject diagnosed with cancer, suspected of having cancer or at risk for cancer, the composition comprising depolymerized hyaluronan, wherein the depolymerized hyaluronan comprises inter-chain covalent crosslinks, and wherein at least about 90 % of the depolymerized hyaluronan has a molecular weight ranging from about 100 - 500 kDa.
An agent for use as a medicament for improving intestinal flora comprising a protease comprising at least one of the following polypeptides to as an active ingredient: a polypeptide consisting of an amino acid sequence shown in SEQ ID NO: 1, a polypeptide comprising an amino acid sequence in which 1 to 16 of amino acids are substituted, added, inserted, or deleted in the amino acid sequence shown in SEQ ID NO: 1, and having a protease activity of about 80 to 120% as compared to the protease activity (100%) of a polypeptide consisting of an amino acid sequence shown in SEQ ID NO: 1, wherein the protease activity is measured under the conditions shown in the description, and the polypeptide is a variant of an acid protease derived from Aspergillus oryzae, and a polypeptide comprising an amino acid sequence having 95% or more sequence identity to an amino acid sequence shown in SEQ ID NO: 1, and having a protease activity of about 80 to 120% as compared to the protease activity (100%) of a polypeptide consisting of an amino acid sequence shown in SEQ ID NO: 1, wherein the protease activity is measured under the conditions shown in the description, and the polypeptide is a variant of an acid protease derived from Aspergillus oryzae. a polypeptide consisting of an amino acid sequence shown in SEQ ID NO: 1, a polypeptide comprising an amino acid sequence in which 1 to 16 of amino acids are substituted, added, inserted, or deleted in the amino acid sequence shown in SEQ ID NO: 1, and having a protease activity of about 80 to 120% as compared to the protease activity (100%) of a polypeptide consisting of an amino acid sequence shown in SEQ ID NO: 1, wherein the protease activity is measured under the conditions shown in the description, and the polypeptide is a variant of an acid protease derived from Aspergillus oryzae, and a polypeptide comprising an amino acid sequence having 95% or more sequence identity to an amino acid sequence shown in SEQ ID NO: 1, and having a protease activity of about 80 to 120% as compared to the protease activity (100%) of a polypeptide consisting of an amino acid sequence shown in SEQ ID NO: 1, wherein the protease activity is measured under the conditions shown in the description, and the polypeptide is a variant of an acid protease derived from Aspergillus oryzae.
A method for reducing emissions of unburnt hydrocarbons on a subsequent engine re-start of at least a cylinder of a multi-cylinder internal combustion engine with adjustable valve timing, the method comprising: prior to stopping the said engine, retarding an intake valve opening position of at least a cylinder in response to a request to stop said engine; and operating said at least a cylinder for at least one intake stroke of said at least a cylinder after said valve opening position adjustment. prior to stopping the said engine, retarding an intake valve opening position of at least a cylinder in response to a request to stop said engine; and operating said at least a cylinder for at least one intake stroke of said at least a cylinder after said valve opening position adjustment.
A network interface comprising: an interface to a host-to-device fabric; an interface to an accelerator fabric, wherein the accelerator fabric is to communicatively couple at least one accelerator device to another accelerator device and wherein the accelerator fabric is separate from the host-to-device fabric; and at least one processor to: process a received packet to determine a destination memory location; request address translation of the destination memory location; request a decode of the address translation to determine a head to use from among a primary or one or more secondary heads, wherein the primary head is connected to the host-to-device fabric and the one or more secondary heads are connected to the accelerator fabric; and based on availability of an address translation of the destination memory location and the determined head indicating a secondary head, permit copy of a portion of the received packet to a memory locally attached to an accelerator via the accelerator fabric or to copy the received packet to a memory buffer via the host-to-device fabric using a direct memory access, DMA, engine. an interface to a host-to-device fabric; an interface to an accelerator fabric, wherein the accelerator fabric is to communicatively couple at least one accelerator device to another accelerator device and wherein the accelerator fabric is separate from the host-to-device fabric; and at least one processor to: process a received packet to determine a destination memory location; request address translation of the destination memory location; request a decode of the address translation to determine a head to use from among a primary or one or more secondary heads, wherein the primary head is connected to the host-to-device fabric and the one or more secondary heads are connected to the accelerator fabric; and based on availability of an address translation of the destination memory location and the determined head indicating a secondary head, permit copy of a portion of the received packet to a memory locally attached to an accelerator via the accelerator fabric or to copy the received packet to a memory buffer via the host-to-device fabric using a direct memory access, DMA, engine. process a received packet to determine a destination memory location; request address translation of the destination memory location; request a decode of the address translation to determine a head to use from among a primary or one or more secondary heads, wherein the primary head is connected to the host-to-device fabric and the one or more secondary heads are connected to the accelerator fabric; and based on availability of an address translation of the destination memory location and the determined head indicating a secondary head, permit copy of a portion of the received packet to a memory locally attached to an accelerator via the accelerator fabric or to copy the received packet to a memory buffer via the host-to-device fabric using a direct memory access, DMA, engine.
A device for the automated picking up and laying of a segment forming the lining of a tunnel, intended to be coupled to a tunnel-boring machine provided with a segment erector, said erector comprising actuators equipped with position sensors, characterized in that it comprises: - a controller configured to communicate with an automated system of the tunnel-boring machine adapted to control the actuation of the erector, and to receive measurement data from the erector sensors, - a three-dimensional vision system comprising at least four laser profilometers, intended to be attached to the erector so as to (i) determine a deviation in position and in inclination between the erector and a segment to be gripped and (ii) acquire the set of data analyzing the deviations in the position and inclination of a segment to be laid which is held by the erector relative to at least one segment and/or one ring of segments previously laid, said three-dimensional vision system being coupled to the controller to transmit said measurement data thereto, the controller being configured to receive a segment laying plan and, thanks to a computer planner adapted to process said analysis data of the three-dimensional vision system, the measurement data of the erector sensors and said laying plan, to determine a path of the erector in order to place said segment to be laid opposite said segment and/or ring of segments previously laid, and to communicate movement orders to the automated system of the tunnel-boring machine in order to actuate the erector to pick up the segment to be laid and displace it according to said path. - a controller configured to communicate with an automated system of the tunnel-boring machine adapted to control the actuation of the erector, and to receive measurement data from the erector sensors, - a three-dimensional vision system comprising at least four laser profilometers, intended to be attached to the erector so as to (i) determine a deviation in position and in inclination between the erector and a segment to be gripped and (ii) acquire the set of data analyzing the deviations in the position and inclination of a segment to be laid which is held by the erector relative to at least one segment and/or one ring of segments previously laid, said three-dimensional vision system being coupled to the controller to transmit said measurement data thereto, the controller being configured to receive a segment laying plan and, thanks to a computer planner adapted to process said analysis data of the three-dimensional vision system, the measurement data of the erector sensors and said laying plan, to determine a path of the erector in order to place said segment to be laid opposite said segment and/or ring of segments previously laid, and to communicate movement orders to the automated system of the tunnel-boring machine in order to actuate the erector to pick up the segment to be laid and displace it according to said path.
A method for washing laundry in a washing machine, wherein the washing machine includes a tub and a drum disposed inside the tub, the method comprising: initial water supplying (211 b) including supplying (211 b) wash water mixed with detergent into the tub and spraying (211 b) wash water without detergent changed to whirling water through a whirling nozzle into the drum while supplying the water mixed with detergent; circulating the wash water and rotating the drum, thereby the wash water soaks a laundry (211 c); and rotating the drum containing the laundry soaked in the wash water, wherein the whirling nozzle comprises: a dome having a receiving space therein; a core provided in the receiving space and formed of a twisted plate to form a plurality of twisted flow paths together with the receiving space, wherein the wash water passing through the plurality of twisted flow paths is changed to the whirling water; and a spray nozzle cap for spraying wash water passing through the flow paths defined by the core and the receiving space. initial water supplying (211 b) including supplying (211 b) wash water mixed with detergent into the tub and spraying (211 b) wash water without detergent changed to whirling water through a whirling nozzle into the drum while supplying the water mixed with detergent; circulating the wash water and rotating the drum, thereby the wash water soaks a laundry (211 c); and rotating the drum containing the laundry soaked in the wash water, wherein the whirling nozzle comprises: a dome having a receiving space therein; a core provided in the receiving space and formed of a twisted plate to form a plurality of twisted flow paths together with the receiving space, wherein the wash water passing through the plurality of twisted flow paths is changed to the whirling water; and a spray nozzle cap for spraying wash water passing through the flow paths defined by the core and the receiving space. a dome having a receiving space therein; a core provided in the receiving space and formed of a twisted plate to form a plurality of twisted flow paths together with the receiving space, wherein the wash water passing through the plurality of twisted flow paths is changed to the whirling water; and a spray nozzle cap for spraying wash water passing through the flow paths defined by the core and the receiving space.
Process for the production of rigid poly(meth)acrylimide (P I) foam cores, comprising the following steps: a. heating of P I particles to an atmospheric-pressure-foaming temperature T 1 which is from 150 to 250°C, where this takes place under a pressure p 1 which is from 2 to 20 bar at which a volume increase of the P I particles of at most 10% by volume takes place in 10 min, b. charging of the P I particles to a mould, where the charging takes place at a pressure p 2 which is from 2 to 20 bar, and then closing of the mould, c. depressurization of the space within the mould to a pressure p 3 which is from 0.1 to 2.0 bar at a temperature T 2 which is from 150 to 250°C, where foaming of the particles takes place, d. cooling of the space within the mould to a temperature T 3 and e. opening and removal of the rigid foam core. a. heating of P I particles to an atmospheric-pressure-foaming temperature T 1 which is from 150 to 250°C, where this takes place under a pressure p 1 which is from 2 to 20 bar at which a volume increase of the P I particles of at most 10% by volume takes place in 10 min, b. charging of the P I particles to a mould, where the charging takes place at a pressure p 2 which is from 2 to 20 bar, and then closing of the mould, c. depressurization of the space within the mould to a pressure p 3 which is from 0.1 to 2.0 bar at a temperature T 2 which is from 150 to 250°C, where foaming of the particles takes place, d. cooling of the space within the mould to a temperature T 3 and e. opening and removal of the rigid foam core.
A method for reducing lateral powder waste of a layer of powder material which advances on a mobile conveyor surface, the powder layer having a transversal section having a generally isosceles trapezium shape with two lateral edges having a decreasing thickness which diminishes mainly in accordance with the angle of friction of the powder, and two lateral walls provided for containing the layer of powder, the walls being perpendicular to the mobile surface and parallel to the advancement direction, wherein the walls are located internally of the reducing edge so as to divide the edge into two parts (121, 122) having substantially the same transversal dimension, and in that the powder which during the advancing of the layer is external of the walls is transferred into a space afforded between the walls in proximity of the walls.
A method (100, 100b, 200, 300, 500) for manufacturing a ballistic armor, characterized in that the method comprises at least the steps of - aligning armor elements (102, 202, 302, 402, 502, 602, 702, 802, 902a, 902b, 1002, 1202a-d, 1302, 1402a, 1402b, 1502, 1702) in front of a casing provider arrangement, and - supplying a casing (426, 626, 726, 826, 926, 1026, 1126a-b, 1226, 1326, 1426, 1526a-c, 1626a-c, 1726a-b, 1826, 1926a-c) around the armor elements, such that the armor elements remain inside the casing, characterized in that the armor elements (102, 202, 302, 402, 502, 602, 702, 802, 902a, 902b, 1002, 1202a-d, 1302, 1402a, 1402b, 1502, 1702) are supported with guides (112, 112b, 212, 312) on at least two sides such that the guides are pushed forward when the casing (426, 626, 726, 826, 926, 1026, 1126a-b, 1226, 1326, 1426, 1526a-c, 1626a-c, 1726a-b, 1826, 1926a-c) is supplied around the armor elements. - aligning armor elements (102, 202, 302, 402, 502, 602, 702, 802, 902a, 902b, 1002, 1202a-d, 1302, 1402a, 1402b, 1502, 1702) in front of a casing provider arrangement, and - supplying a casing (426, 626, 726, 826, 926, 1026, 1126a-b, 1226, 1326, 1426, 1526a-c, 1626a-c, 1726a-b, 1826, 1926a-c) around the armor elements, such that the armor elements remain inside the casing,
A method for securing intellectual property distributed electronically comprising: establishing contact between an intellectual property provider and a client with a player, wherein at least one component code is shared; ordering an intellectual property product from the intellectual property provider; receiving the intellectual property product wherein the intellectual property product further comprises content data and rights data in digital form and is encrypted with a private key prior to being distributed electronically, wherein the private key is not distributed electronically and the private key is created using the at least one component code and at least one additional component code determined at the time the intellectual property product is ordered; storing the intellectual property product on the player, the player further comprising a player data record and wherein the player data record comprises the at least one component code and the at least one additional component code determined at the time the intellectual property product is ordered; decrypting the intellectual property product with a client's copy of the private key used to encrypt the intellectual property product, wherein the client's copy of the private key is created by the player using a combination of the at least one component code and the at least one additional component code determined at the time the intellectual property product is ordered; comparing the rights data and the player data record to determine entitlement to play the content data; and playing the content data on the player if entitlement has been determined. establishing contact between an intellectual property provider and a client with a player, wherein at least one component code is shared; ordering an intellectual property product from the intellectual property provider; receiving the intellectual property product wherein the intellectual property product further comprises content data and rights data in digital form and is encrypted with a private key prior to being distributed electronically, wherein the private key is not distributed electronically and the private key is created using the at least one component code and at least one additional component code determined at the time the intellectual property product is ordered; storing the intellectual property product on the player, the player further comprising a player data record and wherein the player data record comprises the at least one component code and the at least one additional component code determined at the time the intellectual property product is ordered; decrypting the intellectual property product with a client's copy of the private key used to encrypt the intellectual property product, wherein the client's copy of the private key is created by the player using a combination of the at least one component code and the at least one additional component code determined at the time the intellectual property product is ordered; comparing the rights data and the player data record to determine entitlement to play the content data; and playing the content data on the player if entitlement has been determined.
A method for detecting an interruption of an active conductor (L+, L-) in an ungrounded direct-voltage power supply system, the method comprising the steps of: - connecting an ohmic minimal load as close as possible to the consumer to generate a minimal load current (I min) on the active conductors (L+, L-), - determining a current load current, - checking whether the current load current falls short of the value of the minimal load current (I min), and signaling a shortfall. - connecting an ohmic minimal load as close as possible to the consumer to generate a minimal load current (I min) on the active conductors (L+, L-), - determining a current load current, - checking whether the current load current falls short of the value of the minimal load current (I min), and signaling a shortfall.
A method (700, 800, 900) of testing a physical hardware system and its hardware system application software by executing the hardware system application software on a corresponding emulated proxy physical hardware system in a proxy virtual machine, the method comprising: obtaining a proxy physical hardware system that matches aspects of the physical hardware system; constructing (703, 800), in a virtualization system formed by one or more general purpose computers, the proxy virtual machine from the proxy physical hardware system; emulating (705, 900), using the virtualization system, hardware components (425, 431, 433, 435, 437, 445, 449) of the proxy physical hardware system in the proxy virtual machine; executing a hardware abstraction software layer in the proxy virtual machine; executing, by the hardware abstraction software layer of the virtualization system, the hardware system application software in the proxy virtual machine using a memory map configured to associate memory addresses for hardware components of the proxy physical hardware system and memory locations (605, 541) of the proxy virtual machine and using at least one adapter (134, 135) that maps input/output data between the proxy virtual machine and the hardware system application software; and testing, using the virtualization system, the physical hardware system by the executing the hardware system application software in the proxy virtual machine on the proxy physical hardware system. obtaining a proxy physical hardware system that matches aspects of the physical hardware system; constructing (703, 800), in a virtualization system formed by one or more general purpose computers, the proxy virtual machine from the proxy physical hardware system; emulating (705, 900), using the virtualization system, hardware components (425, 431, 433, 435, 437, 445, 449) of the proxy physical hardware system in the proxy virtual machine; executing a hardware abstraction software layer in the proxy virtual machine; executing, by the hardware abstraction software layer of the virtualization system, the hardware system application software in the proxy virtual machine using a memory map configured to associate memory addresses for hardware components of the proxy physical hardware system and memory locations (605, 541) of the proxy virtual machine and using at least one adapter (134, 135) that maps input/output data between the proxy virtual machine and the hardware system application software; and testing, using the virtualization system, the physical hardware system by the executing the hardware system application software in the proxy virtual machine on the proxy physical hardware system.
A lubricating oil composition comprising: (a) from 45 to 75 mass% of a low viscosity first base oil component which is a Fischer-Tropsch derived base oil with a kinematic viscosity at 100°C in the range of from 3.5 to 7.0 mm 2 /s; (b) from 3 to 35 mass% of a high viscosity second base oil component which is a polyalkylene glycol with a kinematic viscosity at 100°C in the range of from 90 to 120 mm 2 /s; (c) an anti-foam additive which is a non-ionic surfactant, wherein the non-ionic surfactant is selected from poly-alkoxylated alcohols, poly-alkoxylated amines and mixtures thereof; and (d) a control component, which comprises one or more ester base oils, wherein mass% is based on the overall mass of the lubricating composition. (a) from 45 to 75 mass% of a low viscosity first base oil component which is a Fischer-Tropsch derived base oil with a kinematic viscosity at 100°C in the range of from 3.5 to 7.0 mm 2 /s; (b) from 3 to 35 mass% of a high viscosity second base oil component which is a polyalkylene glycol with a kinematic viscosity at 100°C in the range of from 90 to 120 mm 2 /s; (c) an anti-foam additive which is a non-ionic surfactant, wherein the non-ionic surfactant is selected from poly-alkoxylated alcohols, poly-alkoxylated amines and mixtures thereof; and (d) a control component, which comprises one or more ester base oils,