mhurhangee/ep-ind-claims huggingface dataset:
Process for dealkylation of alkylaromatic compounds which process comprises contacting an alkylaromatic feedstock with i) a first catalyst comprising a) a carrier which comprises of from 20 to 70 wt. % of a refractory oxide binder and of from 30 to 80 wt. % of dealuminated ZSM-5 having a crystallite size of from 500 to 10,000 nm and a silica to alumina molar ratio in the range of from 20 to 100; b) an amount of from 0.001 to 5 wt. % of one or more metals chosen from the group consisting of Groups 6, 9 and 10; and optionally c) a metal chosen from Group 14 in an amount up to 0.5 wt. %, and ii) a subsequent catalyst comprising a) a carrier which comprises of from 20 to 70 wt. % of a refractory oxide binder; of from 30 to 80 wt. % of ZSM-5 having a crystallite size of from 3 to 100 nm and a SAR in the range of from 20 to 200; b) an amount of from 0.001 to 5 wt. % of one or more metals chosen from the group consisting of Groups 6, 9 and 10; and optionally c) a metal chosen from Group 14 in an amount up to 0.5 wt. %, all percentages being on the basis of total catalyst. i) a first catalyst comprising a) a carrier which comprises of from 20 to 70 wt. % of a refractory oxide binder and of from 30 to 80 wt. % of dealuminated ZSM-5 having a crystallite size of from 500 to 10,000 nm and a silica to alumina molar ratio in the range of from 20 to 100; b) an amount of from 0.001 to 5 wt. % of one or more metals chosen from the group consisting of Groups 6, 9 and 10; and optionally c) a metal chosen from Group 14 in an amount up to 0.5 wt. %, and ii) a subsequent catalyst comprising a) a carrier which comprises of from 20 to 70 wt. % of a refractory oxide binder; of from 30 to 80 wt. % of ZSM-5 having a crystallite size of from 3 to 100 nm and a SAR in the range of from 20 to 200; b) an amount of from 0.001 to 5 wt. % of one or more metals chosen from the group consisting of Groups 6, 9 and 10; and optionally c) a metal chosen from Group 14 in an amount up to 0.5 wt. %, all percentages being on the basis of total catalyst.
A track apparatus comprising a stock rail and a switch point made from a switch rail, each including a head (2, 10), a core (3, 11) and a shoe (4, 12) made up of wings extending on either side of the lower end of the core (3, 11), the shoe of the switch point resting on a horizontal sliding table, said stock rail and said switch point each having a distal part and a proximal part, the latter being located on the side of the shoe of the switch point, which is connected to a rail of the running track, the heads (2, 10) of the stock rail and the switch point each having a rolling surface inclined by at least 1/60, preferably 1/20, relative to the horizontal and a wear profile identical to that of the rolling surface, where the play between the end of the shoe of the switch point and the stock rail is at least 2 mm, preferably from 4 to 5 mm, when the switch point is pressed against the stock rail, and where when the switch point is pressed against the stock rail, the contact length between them represents at least 80% of the length of the inclined contact face of the stock rail, characterized in that the head is tapered by machining of the switch rail and the shoe is formed, in its distal part, only by rolling, without machining, in that the proximal part of the switch point is formed by forging or by forging and machining, in that the vertical inertia (Ix) of the switch rail is greater than or equal to 60% of the vertical inertia (Ix) of the stock rail and the running track, and in that the minimum lateral inertia (Iy) of the switch point is at least equal to 100%, preferably to at least 130%, more preferably at least 140%, of the minimum lateral inertia (Iy) of the stock rail and the running track rail.
An address translation cache, ATC, configured to store translation entries indicating mapping information between a virtual address and a physical address of a memory device, the ATC comprising: a plurality of flexible page group caches (120; FPGC1 ~ FPGCn), each flexible page group cache configured to store translation entries corresponding to a page size allocated to the flexible page group cache, each flexible page group cache being a set associative cache; a shared cache (130; SHC) configured to store, regardless of page sizes, translation entries that are not stored in the plurality of flexible page group caches (120; FPGC1 ~ FPGCn), the shared cache (130; SHC) being a fully associative cache; and a cache manager (110; CMNG) configured to allocate a page size to each flexible page group cache, manage cache page information on the page sizes allocated to the plurality of flexible page group caches (120; FPGC1 ~ FPGCn), and control the plurality of flexible page group caches (120; FPGC1 ~ FPGCn) and the shared cache (130; SHC) based on the cache page information, and wherein the cache manager (110; CMNG) is further configured such that when the cache manager (110; CMNG) receives an input translation entry corresponding to a new page size that is different from the page sizes allocated to the plurality of flexible page group caches (120; FPGC1 ~ FPGCn) and there does not exist an empty flexible page group cache to which the page size is not allocated, the cache manager (110; CMNG) stores the input translation entry in the shared cache (130; SHC). a plurality of flexible page group caches (120; FPGC1 ~ FPGCn), each flexible page group cache configured to store translation entries corresponding to a page size allocated to the flexible page group cache, each flexible page group cache being a set associative cache; a shared cache (130; SHC) configured to store, regardless of page sizes, translation entries that are not stored in the plurality of flexible page group caches (120; FPGC1 ~ FPGCn), the shared cache (130; SHC) being a fully associative cache; and a cache manager (110; CMNG) configured to allocate a page size to each flexible page group cache, manage cache page information on the page sizes allocated to the plurality of flexible page group caches (120; FPGC1 ~ FPGCn), and control the plurality of flexible page group caches (120; FPGC1 ~ FPGCn) and the shared cache (130; SHC) based on the cache page information, and wherein the cache manager (110; CMNG) is further configured such that when the cache manager (110; CMNG) receives an input translation entry corresponding to a new page size that is different from the page sizes allocated to the plurality of flexible page group caches (120; FPGC1 ~ FPGCn) and there does not exist an empty flexible page group cache to which the page size is not allocated, the cache manager (110; CMNG) stores the input translation entry in the shared cache (130; SHC).
Overhead garage door to close off an opening of a garage or any other building, comprising a fixed frame provided with two lateral uprights, a closure panel coupled to each of said lateral uprights by a main lever and a rotation shaft, a motorization mounted in the lateral uprights of said fixed frame and coupled to each of said rotation shafts to move said closure panel between a closed position and an open position, and vice versa, and a compensation mechanism provided in said lateral uprights and coupled to each of said main levers, said garage door comprising, for each of the lateral uprights of said fixed frame, a motor support constituting a sub-assembly of said garage door and including a support profile, said support profile constituting support for attachment means of a first end of said compensation mechanism, attachment means of a second end of said compensation mechanism, a motor, a bearing for said rotation shaft, a mechanical transmission between said motor and said rotation shaft, with the compensation mechanism, the motor, the bearing for said rotation shaft, and the mechanical transmission between said motor and said rotation shaft being directly fixed on said support profile.
A compound of formula wherein X is C=O, C=S or B-OH; Y Z is (a) CH=O, CH 2 -I, CH 2 -Br, CH 2 -CI, CH 2 -OPO 2, CH 2 -OTs, CO-NHS or CH=CH 2, wherein OTs is p-toluene sulfonyloxy and NHS is N-oxy-succinimide; or (b) O-I, O-Br, O-CI, S-I, S-Br or S-I; R 1 comprises or consists of (c) (i) a first group being a peptidic group binding to a proteolytic site of a proteasome, said first group being bound to X; wherein said first group comprises or consists of at least two amino acids, wherein X takes the place of the carbonyl group or of the α-carbon of the C-terminal amino acid of said peptidic group; and (ii) optionally a second group enhancing delivery, wherein said second group is bound to the N-terminus of said peptidic group; or (d) an aryl sulfonamide binding between subunits β1 and β2 of a proteasome; R 2 and R 3 are independently selected from methyl, methoxy, ethyl, ethenyl, ethinyl and cyano, wherein methyl and ethyl may be substituted with OH or halogen. X is C=O, C=S or B-OH; Y Z is (a) CH=O, CH 2 -I, CH 2 -Br, CH 2 -CI, CH 2 -OPO 2, CH 2 -OTs, CO-NHS or CH=CH 2, wherein OTs is p-toluene sulfonyloxy and NHS is N-oxy-succinimide; or (b) O-I, O-Br, O-CI, S-I, S-Br or S-I; (a) CH=O, CH 2 -I, CH 2 -Br, CH 2 -CI, CH 2 -OPO 2, CH 2 -OTs, CO-NHS or CH=CH 2, wherein OTs is p-toluene sulfonyloxy and NHS is N-oxy-succinimide; or (b) O-I, O-Br, O-CI, S-I, S-Br or S-I; R 1 comprises or consists of (c) (i) a first group being a peptidic group binding to a proteolytic site of a proteasome, said first group being bound to X; wherein said first group comprises or consists of at least two amino acids, wherein X takes the place of the carbonyl group or of the α-carbon of the C-terminal amino acid of said peptidic group; and (ii) optionally a second group enhancing delivery, wherein said second group is bound to the N-terminus of said peptidic group; or (d) an aryl sulfonamide binding between subunits β1 and β2 of a proteasome; (c) (i) a first group being a peptidic group binding to a proteolytic site of a proteasome, said first group being bound to X; wherein said first group comprises or consists of at least two amino acids, wherein X takes the place of the carbonyl group or of the α-carbon of the C-terminal amino acid of said peptidic group; and (ii) optionally a second group enhancing delivery, wherein said second group is bound to the N-terminus of said peptidic group; or (i) a first group being a peptidic group binding to a proteolytic site of a proteasome, said first group being bound to X; wherein said first group comprises or consists of at least two amino acids, wherein X takes the place of the carbonyl group or of the α-carbon of the C-terminal amino acid of said peptidic group; and (ii) optionally a second group enhancing delivery, wherein said second group is bound to the N-terminus of said peptidic group; (d) an aryl sulfonamide binding between subunits β1 and β2 of a proteasome; R 2 and R 3 are independently selected from methyl, methoxy, ethyl, ethenyl, ethinyl and cyano, wherein methyl and ethyl may be substituted with OH or halogen.
Cam-operated device for controlling at least one component, said device comprising a cam comprising at least one first camway (7, 8) on a first face and a second camway on an opposite face, said first camway (7, 8) having a depth, measured from an opening, at the level of said first face, of said first camway (7, 8), and said second camway having a depth, measured from an opening, at the level of said opposite face, of said second camway, characterized in that a height (h) of the cam, measured between the opening of the first and second camways (7, 8, 9), is less than the sum of the depths (h1, h2) of the camways (7, 8, 9).
A method for manufacturing graphene using a high-pressure homogenizer comprising a channel module comprising a microchannel through which an object for homogenization passes, wherein the microchannel is provided with a first flow channel and a second flow channel in order along the direction through which the object passes, the first flow channel is provided with a plurality of first baffles disposed so as to partition the microchannel into a plurality of spaces, the second flow channel is provided with a plurality of second baffles disposed so as to partition the microchannel into a plurality of spaces, and at least one first baffle is provided to be positioned between two adjacent second baffles, the method comprises the steps of: supplying a solution containing graphite to the channel module; and applying a pressure of 100 to 3000 bar to the channel module to pass the solution containing graphite. wherein the microchannel is provided with a first flow channel and a second flow channel in order along the direction through which the object passes, the first flow channel is provided with a plurality of first baffles disposed so as to partition the microchannel into a plurality of spaces, the second flow channel is provided with a plurality of second baffles disposed so as to partition the microchannel into a plurality of spaces, and at least one first baffle is provided to be positioned between two adjacent second baffles, the method comprises the steps of: supplying a solution containing graphite to the channel module; and applying a pressure of 100 to 3000 bar to the channel module to pass the solution containing graphite. supplying a solution containing graphite to the channel module; and applying a pressure of 100 to 3000 bar to the channel module to pass the solution containing graphite.
A method for bootstrapping a gateway in a device management system, comprising: acquiring, from a terminal device by the gateway, server information saved by the terminal device; determining, by the gateway, a target server according to the acquired server information, wherein the target server is configured to perform device management on the terminal device in a local area network through the gateway; acquiring, from the terminal device by the gateway, bootstrap address information of the target server; initiating, by the gateway, bootstrap request, wherein the initiating the bootstrap request is initiating a connection to an address in the bootstrap address information of the target server, and requesting bootstrap information by the gateway, and performing, by the gateway, a bootstrap according to the bootstrap information received from the target server; wherein bootstrap is endowing the gateway with a capability of initiating a management session with the target server. acquiring, from a terminal device by the gateway, server information saved by the terminal device; determining, by the gateway, a target server according to the acquired server information, wherein the target server is configured to perform device management on the terminal device in a local area network through the gateway; acquiring, from the terminal device by the gateway, bootstrap address information of the target server; initiating, by the gateway, bootstrap request, wherein the initiating the bootstrap request is initiating a connection to an address in the bootstrap address information of the target server, and requesting bootstrap information by the gateway, and performing, by the gateway, a bootstrap according to the bootstrap information received from the target server; wherein bootstrap is endowing the gateway with a capability of initiating a management session with the target server.
A method of prognosis of a human patient with an infection, and/or identifying a human patient at greater risk of death from an infection, the method comprising detecting an amount of free light chains in a sample of blood or serum from the human patient, wherein a higher amount of FLC is associated with decreased survival due to the infection and/or increased risk from an infection, wherein the infection is a bacterial infection selected from a lower respiratory tract infection (such as pneumonia), urinary tract infection, Clostridium difficile infection, septicaemia or peritonitis.
Electric refrigerant compressor, namely a scroll compressor, comprising: - a compressor unit having a spiral stator element and a spiral rotor element which can be moved in an orbiting motion relative to the spiral stator element; - an electric drive for generating a rotary motion; - a drive shaft for receiving and transmitting the rotary motion of the electric drive; - an orbiting drive which is configured to receive the rotary motion through the drive shaft, convert the rotary motion into orbiting motion relative to the spiral stator element, and transmit the orbiting motion to the spiral rotor element; characterized in that between the orbiting drive and the electric drive, in particular on, at and/or within the drive shaft, a rotary impact damper element is arranged, wherein the rotary impact damper element is configured to effect an attenuation and/or damping of rotary impacts which are produced by a compression operation in the compressor unit and are transmitted via the orbiting drive to the drive shaft and/or via reaction torques into the spiral stator element. - a compressor unit having a spiral stator element and a spiral rotor element which can be moved in an orbiting motion relative to the spiral stator element; - an electric drive for generating a rotary motion; - a drive shaft for receiving and transmitting the rotary motion of the electric drive; - an orbiting drive which is configured to receive the rotary motion through the drive shaft, convert the rotary motion into orbiting motion relative to the spiral stator element, and transmit the orbiting motion to the spiral rotor element;
Valve, notably engine control valve, comprising: - at least three paths (2, 9, 11) opening into a common interior space, - a metering flap able to pivot in a first path in order to vary the cross section for the passage of a fluid along the latter, - a routing flap able to pivot between a position in which it closes off a second path and a position in which it closes off a third path, - a common device for actuating the flaps (10, 12), the actuating device comprising at least one actuating wheel movable in rotation to cause at least one of the flaps that are the routing flap and the metering flap to pivot, characterized in that the actuating device has at least a first configuration in which the metering flap is in a position of complete opening of the first path and in which the routing flap is in an intermediate position in which it is neither in the position for closing off the second path nor in the position for closing off the third path, and the actuating device being configured so that rotation of the actuating wheel while the actuating device is in the first configuration leads: - in a first phase, to significant pivoting of the routing flap while the metering flap is subjected only to a small amount of pivoting, and - in a second phase subsequent to the first phase to the pivoting of the metering flap in order to modify the cross section for the passage of fluid along the first path without the position of the routing flap being modified. - at least three paths (2, 9, 11) opening into a common interior space, - a metering flap able to pivot in a first path in order to vary the cross section for the passage of a fluid along the latter, - a routing flap able to pivot between a position in which it closes off a second path and a position in which it closes off a third path, - a common device for actuating the flaps (10, 12), - in a first phase, to significant pivoting of the routing flap while the metering flap is subjected only to a small amount of pivoting, and - in a second phase subsequent to the first phase to the pivoting of the metering flap in order to modify the cross section for the passage of fluid along the first path without the position of the routing flap being modified.
A control valve (113, 113') for a fuel injector, the control valve comprising: a control valve body (115,115'); a supply passage (133, 133') for high pressure fuel, a cylindrical control chamber (119, 119'), a pressure compensating chamber (143, 143'), the cylindrical control chamber (119, 119') and the pressure compensating chamber (143, 143') both being in fluid communication with the supply passage (133, 133') and, a control valve member (117,117') mounted in the cylindrical control chamber (119, 119') for controlling fuel pressure in the control chamber (119, 119'),the pressure compensating chamber (143, 143') being spaced radially outwardly from the control chamber (119, 119'), characterized in that the control valve (113, 113') further comprises a sleeve located in the control valve body (115, 115'), the pressure compensating chamber (143, 143') being formed between an outer surface of the sleeve and the control valve body (115, 115'), and wherein the sleeve is a restriction fit in the control valve body (115, 115'); at least one high pressure seal being formed between the sleeve and the control valve body (115, 115'), and wherein an inner surface of the sleeve forms a seal with the control valve member (117,117'). a control valve body (115,115'); a supply passage (133, 133') for high pressure fuel, a cylindrical control chamber (119, 119'), a pressure compensating chamber (143, 143'), the cylindrical control chamber (119, 119') and the pressure compensating chamber (143, 143') both being in fluid communication with the supply passage (133, 133') and, a control valve member (117,117') mounted in the cylindrical control chamber (119, 119') for controlling fuel pressure in the control chamber (119, 119'),the pressure compensating chamber (143, 143') being spaced radially outwardly from the control chamber (119, 119'), characterized in that the control valve (113, 113') further comprises a sleeve located in the control valve body (115, 115'), the pressure compensating chamber (143, 143') being formed between an outer surface of the sleeve and the control valve body (115, 115'), and wherein the sleeve is a restriction fit in the control valve body (115, 115'); at least one high pressure seal being formed between the sleeve and the control valve body (115, 115'), and wherein an inner surface of the sleeve forms a seal with the control valve member (117,117').
A heating arrangement, comprising: a platform for a container to be heated; an attachment arrangement for attaching at least two containers (300, 400) of different sizes to the platform; at least one heating element (101, 102) configured to heat a container on the platform; characterized by: at least one sensor for detecting at least one property relating to the size of a container attached to the platform; and a control arrangement arranged to control the heating element(s) in dependence on the output of the sensor. a platform for a container to be heated; an attachment arrangement for attaching at least two containers (300, 400) of different sizes to the platform; at least one heating element (101, 102) configured to heat a container on the platform; characterized by: at least one sensor for detecting at least one property relating to the size of a container attached to the platform; and a control arrangement arranged to control the heating element(s) in dependence on the output of the sensor. at least one sensor for detecting at least one property relating to the size of a container attached to the platform; and a control arrangement arranged to control the heating element(s) in dependence on the output of the sensor.