mhurhangee/ep-ind-claims huggingface dataset:
Catalyst system suitable for catalyzing the production of polyurethane systems, characterized in that the catalyst system comprises a metal salt of a carboxylic acid of formula R 1 -O-[(AlkO) a -(ArylalkO) b] x -{[C -Z] y -(CR 2 R 3) z} m -COO - M n+ 1/n where R 1 = linear, branched or cyclic hydrocarbon moiety, Z = saturated or unsaturated, aliphatic, aromatic or mixed-aliphatic-aromatic, linear, branched, or cyclic hydrogen moiety having from 1 to 30 carbon atoms optionally with further heteroatoms, preferably selected from nitrogen, oxygen, sulfur and phosphorus, R 2 and R 3 = mutually independently H or a linear or branched hydrocarbon moiety having from 1 to 10 carbon atoms, preferably H or methyl, with preference H, x = from 1 to 10, y = 0 or an integer ≥ 1, z = 0 or an integer ≥ 1, m = an integer ≥ 1, n = an integer ≥ 1, M = tin AlkO = identical or different alkylene oxide units, ArylalkO = identical or different arylalkylene oxide units, a = from 0 to 20, b = from 0 to 20, a + b ≥ 1, where the units indicated by the indices a and b can have blockwise or random distribution, preferably having blockwise arrangement in any desired sequence in the molecule. R 1 = linear, branched or cyclic hydrocarbon moiety, Z = saturated or unsaturated, aliphatic, aromatic or mixed-aliphatic-aromatic, linear, branched, or cyclic hydrogen moiety having from 1 to 30 carbon atoms optionally with further heteroatoms, preferably selected from nitrogen, oxygen, sulfur and phosphorus, R 2 and R 3 = mutually independently H or a linear or branched hydrocarbon moiety having from 1 to 10 carbon atoms, preferably H or methyl, with preference H, x = from 1 to 10, y = 0 or an integer ≥ 1, z = 0 or an integer ≥ 1, m = an integer ≥ 1, n = an integer ≥ 1, M = tin AlkO = identical or different alkylene oxide units, ArylalkO = identical or different arylalkylene oxide units, a = from 0 to 20, b = from 0 to 20, a + b ≥ 1, where the units indicated by the indices a and b can have blockwise or random distribution, preferably having blockwise arrangement in any desired sequence in the molecule.
A method of operating a diesel engine provided with an exhaust conduit comprising a controllable supercharger located upstream of a catalytic converter, a fuel injector located downstream of the supercharger and a diesel particulate filter located downstream of the catalytic converter, said method comprising: - determining that a regeneration cycle is required for the diesel particulate filter; - injecting a predetermined amount of fuel over a period of time into the exhaust conduit upstream of the catalytic converter; - controlling the supercharger to pulse the flow rate of exhaust continuously during the period of fuel injection; - combusting said fuel to burn particulates trapped within the diesel particulate filter. - determining that a regeneration cycle is required for the diesel particulate filter; - injecting a predetermined amount of fuel over a period of time into the exhaust conduit upstream of the catalytic converter; - controlling the supercharger to pulse the flow rate of exhaust continuously during the period of fuel injection; - combusting said fuel to burn particulates trapped within the diesel particulate filter.
Tool provision device, in particular workshop trolley, workbench or tool cupboard, which has a housing and containers arranged therein, particularly drawers, wherein in a container is provided at least one tool carrier which has several receptacles for tools and to the receptacles (8; 8a, 8b) is assigned respectively one detector for the detection of the presence of a tool in the receptacle (8; 8a, 8b), wherein the detector has a pushbutton switch having a pushbutton element (13, 13a, 13b), wherein the pushbutton element (13, 13a, 13b) engages through an opening in the tool carrier and projects with an effective surface into the receptacle (8; 8a, 8b), wherein in the case of at least one receptacle of the first type the opening use a breakthrough passing through the wall of the tool carrier below the receptacle and the pushbutton element (13, 13a) projects from below through the base of a receptacle of the first type and wherein at least one receptacle (8; 8a, 8b) a holding element is arranged which functions as a pressure booster for a tool, characterised in that in the case of at least one receptacle of the second type the pushbutton element (13, 13b) projects laterally into the receptacle of the second type.
A method for transferring capability information of a calling-party User Equipment, UE, in combined Circuit-Switched, CS, and Internet Protocol Multimedia Subsystem, IMS, services, CSI, the method comprising: receiving, by a CSI Application Server (307, 607), AS, a first Session Initiation Protocol, SIP, request message (317, 615) originating from the calling-party UE (301, 601); generating, by the CSI AS (307, 607), a second SIP message (321, 619) containing the capability information of the calling-party UE; and transmitting, by the CSI AS (307, 607), the second SIP message (321, 619) containing the capability information of the calling-party UE to a called-party UE in a CS domain, wherein the capability information of the calling-party UE (301, 601) comprises information representing if the calling-party UE is capable of simultaneous CS and Packet-Switched, PS, services, IMS state information representing if the calling-party UE is IMS registered, version information representing if the capability information is updated, and a personal Mobile Equipment, ME, identifier of the calling-party (301, 601). receiving, by a CSI Application Server (307, 607), AS, a first Session Initiation Protocol, SIP, request message (317, 615) originating from the calling-party UE (301, 601); generating, by the CSI AS (307, 607), a second SIP message (321, 619) containing the capability information of the calling-party UE; and transmitting, by the CSI AS (307, 607), the second SIP message (321, 619) containing the capability information of the calling-party UE to a called-party UE in a CS domain, wherein the capability information of the calling-party UE (301, 601) comprises information representing if the calling-party UE is capable of simultaneous CS and Packet-Switched, PS, services, IMS state information representing if the calling-party UE is IMS registered, version information representing if the capability information is updated, and a personal Mobile Equipment, ME, identifier of the calling-party (301, 601).
A memory interface controller for enabling a processor designed to support NOR flash and SRAM components to use NAND flash and SDRAM, wherein sectors of the SDRAM comprise a cache for storing data read from sectors of NAND flash, the memory interface controller comprising: a cache controller module for managing the flow of data between the NAND flash and SDRAM; a read-write buffer in communication with the cache controller module and with interface controllers for the NAND flash and SDRAM, respectively, for buffering data read or written between the cache and the NAND flash memory; a cache tag memory for storing at least one tag entry for correlating a sector of the cache with a sector of NAND flash, such that when the processor requests data from the NAND flash, the memory interface controller is capable of accessing the appropriate data sector from the NAND flash, reading the requested data, and writing the data using the read-write buffer to the sector of the cache for future processor requests for said data sector. a cache controller module for managing the flow of data between the NAND flash and SDRAM; a read-write buffer in communication with the cache controller module and with interface controllers for the NAND flash and SDRAM, respectively, for buffering data read or written between the cache and the NAND flash memory; a cache tag memory for storing at least one tag entry for correlating a sector of the cache with a sector of NAND flash, such that when the processor requests data from the NAND flash, the memory interface controller is capable of accessing the appropriate data sector from the NAND flash, reading the requested data, and writing the data using the read-write buffer to the sector of the cache for future processor requests for said data sector.
A shield assembly for connection to a syringe barrel for preventing inadvertent needle sticks after use of the syringe, the shield assembly comprising a cylindrical portion connectable to a front end of the syringe barrel, a shield releasably mounted on said cylindrical portion at a first position, and an urging member for urging said shield in a forward direction relative to the syringe barrel, wherein one of said shield and said cylindrical portion defines two track arrangements on opposing sides of said one of said shield and said barrel, each of said track arrangements, having an entry track with an end joined to a lockout track (62a, 62b) at an intersection, a first portion of said lockout track (62a, 62b) extending beyond said intersection to a first end of said lockout track (62a, 62b) and a second portion of said lockout track (62a, 62b) extending beyond said intersection to a second end of said lockout track (62a, 62b), and the other of said shield and said cylindrical portion includes pins arranged on resilient lever arms and guidably inserted in said track arrangements, said shield being movable from said first position to a second position against the urgency of said urging member when a needle cannula of the syringe is inserted into a patient for delivery of the medicament, wherein, in each of said track arrangements, said pin moving from a first pin position along said entry track at least to the intersection and into a second pin position in said lock-out track (62a, 62b) during movement of said shield from the first position to the second position, and said shield being moveable from said second position to a third position by the urgency of said urging member upon removal of the needle cannula from the patient to cover the tip of the needle cannula connected to the forward end of the syringe barrel, wherein, in each of said track arrangements, said pin moving along said lockout track (62a, 62b) from said second pin position to a third pin position solely by the urgency of said urging member during movement of said shield from said second position to said third position, and wherein said one of said shield and said cylindrical portion further comprises a blocking element arranged at said end of said entry track proximate said intersection in at least one of said track arrangements, said blocking element having a fixed blocking surface facing said lock-out track (62a, 62b) of said at least one of said track arrangements and blocking reentry of the associated one of said pins into said entry track from said lock-out track (62a, 62b) whereby the forward ends (89 a, 89 b) of said lockout tracks (62a, 62b) are axially offset so that said shield is held askew relative to said needle cannula by the urgency of said urging member when said shield is in the third position.
A triacrylate compound represented by the following formula: wherein each R is independently a hydrogen atom, an alkyl group having 1 to 6 carbon atoms or a halogen atom, R 1 and R 2 are each independently a linear or branched alkyl group having 1 to 6 carbon atoms, and R 3 is a linear or branched alkyl group having 1 to 6 carbon atoms or a hydroxymethyl group.
A method for producing an electrical stress-controlling composition comprising mixing a particulate filler comprising doped zinc oxide varistor powder in a polymeric matrix (10; 20), wherein most of the particles (11; 21) in said doped zinc oxide varistor powder have non-spherical and irregular shapes, characterized by obtaining said doped zinc oxide varistor powder as a residual product from the production of doped zinc oxide varistor discs.
A folded lens assembly (102, 302, 402, 502, 602, 702) comprising: in order from an object side to an image side, a) a positive first lens element L 1 with a first optical axis, a first lens width W 1 and a first lens length A1, the positive first lens element L1 having two surfaces (L 1 S 1, L 1 S 2); b) a light folding element; c) a negative second lens element L 2 and a plurality of additional lens elements L 3 -L N with a common second optical axis, wherein the lens elements L 2 -L N are arranged in order from the object side to the image side; and d) an image sensor having a sensor diagonal length, wherein the light folding element is configured to fold light from the first optical axis to the second optical axis, wherein the width W 1 is measured along a direction perpendicular to both directions of the first and second optical axes, wherein the length A 1 is measured along the second optical axis direction, characterized in that each surface of the two surfaces (L 1 S 1, L 1 S 2) has an aperture that includes two cuts (112a, 112b) along the second optical axis, such that the length A 1 measured between the two cuts is smaller than the width W 1, wherein the folded lens has an optical height OH, wherein SDL/OH>0.7, and wherein OH/W 1 <1.1. a) a positive first lens element L 1 with a first optical axis, a first lens width W 1 and a first lens length A1, the positive first lens element L1 having two surfaces (L 1 S 1, L 1 S 2); b) a light folding element; c) a negative second lens element L 2 and a plurality of additional lens elements L 3 -L N with a common second optical axis, wherein the lens elements L 2 -L N are arranged in order from the object side to the image side; and d) an image sensor having a sensor diagonal length, wherein the light folding element is configured to fold light from the first optical axis to the second optical axis, wherein the width W 1 is measured along a direction perpendicular to both directions of the first and second optical axes, wherein the length A 1 is measured along the second optical axis direction, wherein the light folding element is configured to fold light from the first optical axis to the second optical axis, wherein the width W 1 is measured along a direction perpendicular to both directions of the first and second optical axes, wherein the length A 1 is measured along the second optical axis direction, each surface of the two surfaces (L 1 S 1, L 1 S 2) has an aperture that includes two cuts (112a, 112b) along the second optical axis, such that the length A 1 measured between the two cuts is smaller than the width W 1, wherein the folded lens has an optical height OH, wherein SDL/OH>0.7, and wherein OH/W 1 <1.1.
An internal combustion engine including a throttle valve, an airbox, and a fuel supply device, the fuel supply device comprising: a main injector disposed at a downstream side of the throttle valve; an auxiliary injector disposed at an upstream side of the throttle valve and in the airbox; and a delivery pipe adopted to supply and distribute a fuel to the auxiliary injector, characterized in that the delivery pipe is disposed inside the airbox, wherein the delivery pipe has both ends which are supported on side walls of the airbox. a main injector disposed at a downstream side of the throttle valve; an auxiliary injector disposed at an upstream side of the throttle valve and in the airbox; and a delivery pipe adopted to supply and distribute a fuel to the auxiliary injector, characterized in that the delivery pipe is disposed inside the airbox, wherein the delivery pipe has both ends which are supported on side walls of the airbox.
A physically stable cheese composition comprising: 55-75 wt% soft cheese, and 25-45 wt% water; wherein the cheese composition has a viscosity from 2'000 to 4'500 mPa.s (cP) measured using a Brookfield rheometer for strain of 133 s -1 at 10°C, and a pH from 4.0 to 4.8; and wherein particles comprised in the cheese composition have a median particle size distribution of 0.6 to 10 micro-meter, preferably of 0.9 to 7 micrometer. 55-75 wt% soft cheese, and 25-45 wt% water;
Use of a thermoplastic resin composition containing: a polyolefin resin; a polyamide resin; and a modified elastomer having a reactive group that reacts with the polyamide resin, the thermoplastic resin composition showing non-Newtonian properties in a fluidized state such that when a melt viscosity at a temperature of 200°C and a shear rate of 12.16 sec -1 measured in accordance with JIS K7199; 1999 is defined as V 1 (Pa•s) and a melt viscosity at a temperature of 200°C and a shear rate of 608.0 sec -1 measured in accordance with JIS K7199; 1999 is defined as V 3 (Pa•s), a ratio V 1/ V 3 is 6.5 or more; in a method for producing a molded body including: a molding step in which the thermoplastic resin composition is molded at a shear rate of 80 sec -1 or more; and a standby step in which the thermoplastic resin composition is on standby at a shear rate of 0 sec -1 or more but less than 80 sec -1 after the molding step. a polyolefin resin; a polyamide resin; and a modified elastomer having a reactive group that reacts with the polyamide resin, the thermoplastic resin composition showing non-Newtonian properties in a fluidized state such that when a melt viscosity at a temperature of 200°C and a shear rate of 12.16 sec -1 measured in accordance with JIS K7199; 1999 is defined as V 1 (Pa•s) and a melt viscosity at a temperature of 200°C and a shear rate of 608.0 sec -1 measured in accordance with JIS K7199; 1999 is defined as V 3 (Pa•s), a ratio V 1/ V 3 is 6.5 or more; a molding step in which the thermoplastic resin composition is molded at a shear rate of 80 sec -1 or more; and a standby step in which the thermoplastic resin composition is on standby at a shear rate of 0 sec -1 or more but less than 80 sec -1 after the molding step.
A hybrid vehicle comprising an internal combustion engine, a driving battery pack, and an exhaust pipe connected to the internal combustion engine, wherein the exhaust pipe comprises: a front-rear direction extended part extended along the driving battery pack in a front-rear direction of the hybrid vehicle and secured to the hybrid vehicle; and a catalytic part positioned between the internal combustion engine and the driving battery pack, adjacent to the driving battery pack, extending from the internal combustion engine to the driving battery pack, and inclined with respect to the front-rear direction extended part; the hybrid vehicle being characterized in that the driving battery pack is situated under a floor of a vehicle body; and the exhaust pipe further comprises: a joint part (73, 73a, 73b) comprising a right-left direction extended part extended in a right-left direction of the hybrid vehicle, and a bent part formed by bending a part of the exhaust pipe, the joint part rotatably holding the catalytic part on the front-rear direction extended part by connecting the right-left direction extended part to the front-rear direction extended part by the bend part. a front-rear direction extended part extended along the driving battery pack in a front-rear direction of the hybrid vehicle and secured to the hybrid vehicle; and a catalytic part positioned between the internal combustion engine and the driving battery pack, adjacent to the driving battery pack, extending from the internal combustion engine to the driving battery pack, and inclined with respect to the front-rear direction extended part; the hybrid vehicle being characterized in that the driving battery pack is situated under a floor of a vehicle body; and the exhaust pipe further comprises: a joint part (73, 73a, 73b) comprising a right-left direction extended part extended in a right-left direction of the hybrid vehicle, and a bent part formed by bending a part of the exhaust pipe, the joint part rotatably holding the catalytic part on the front-rear direction extended part by connecting the right-left direction extended part to the front-rear direction extended part by the bend part. a joint part (73, 73a, 73b) comprising a right-left direction extended part extended in a right-left direction of the hybrid vehicle, and a bent part formed by bending a part of the exhaust pipe, the joint part rotatably holding the catalytic part on the front-rear direction extended part by connecting the right-left direction extended part to the front-rear direction extended part by the bend part.
A heat treating device, comprising: a heating furnace which heats a workpiece; an ammonia gas supply device which supplies an ammonia gas which nitrides the workpiece to the heating furnace; and a thermal decomposition furnace which thermally decomposes the ammonia gas discharged from the heating furnace after the nitriding, characterised in that the thermal decomposition furnace includes a reactant (31, 31A, 31B) which is solid, is formed in a box shape or block shape, and promotes a thermal decomposition reaction of the ammonia gas, a heating chamber which accommodates and heats the reactant (31, 31A, 31B), an introduction pipe through which the ammonia gas is introduced to the heating chamber, a vacuum container which surrounds the heating chamber, and a vacuum pump which evacuates the inside of the vacuum container. a heating furnace which heats a workpiece; an ammonia gas supply device which supplies an ammonia gas which nitrides the workpiece to the heating furnace; and a thermal decomposition furnace which thermally decomposes the ammonia gas discharged from the heating furnace after the nitriding, characterised in that the thermal decomposition furnace includes a reactant (31, 31A, 31B) which is solid, is formed in a box shape or block shape, and promotes a thermal decomposition reaction of the ammonia gas, a heating chamber which accommodates and heats the reactant (31, 31A, 31B), an introduction pipe through which the ammonia gas is introduced to the heating chamber, a vacuum container which surrounds the heating chamber, and a vacuum pump which evacuates the inside of the vacuum container.
A method of manufacturing a rolling bearing with a rotation sensor comprising an inner race, an outer race, wherein one of said inner and outer races is a rotating race, and the other is a stationary race, an annular magnetic encoder polarized alternately in different magnetic poles in a circumferential direction and mounted on said rotating race, a magnetic sensor for detecting change of magnetic flux when said magnetic encoder rotates, and a resin sensor housing incorporating said magnetic sensor therein and mounted on said stationary race, said resin sensor housing being integrally formed with a tubular duct through which output cables of said magnetic sensor extend to outside, wherein an opening is provided in a side face of said tubular duct to extend from its proximal to distal ends, and that said rolling bearing further comprises a lid, wherein with said output cables put through said duct from the opening, said lid is mounted to said duct to close said opening, a caulking agent is filled in the clearance around the output cables in the duct near its distal end, and the interior of the sensor housing including the interior of the duct is filled with a thermosetting molding resin, wherein said opening of the tubular duct has a uniform width from the proximal end to the distal end thereof, and wherein said lid is mounted in said opening by sliding from the distal end to the proximal end thereof.