mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor device comprising: a semiconductor die (SD) including a central region (CREG) and a peripheral region (PREG) surrounding the central region (CREG); a defect detection circuit (CDC) in the peripheral region (PREG), the defect detection circuit (CDC) arranged in an open conduction loop, the defect detection circuit (CDC) comprising a plurality of latch circuits (LC1~LCm) and a plurality of defect detection conduction paths (CDP1~CDPm-1), each defect detection conduction path of the plurality of defect detection conduction paths (CDP1~CDPm-1) connecting two adjacent latch circuits of the plurality of latch circuits (LC1~LCm); and a test control circuitry (TCC) configured to perform (a) a test write operation by sequentially transferring bits (B1~Bm) of an input data pattern (DPI) in a forward direction (FDR) of the open conduction loop to cause the plurality of latch circuits (LC1~LCm) to store the bits of the input data pattern (DPI) in the plurality of latch circuits (LC1∼LC1m, characterised in that the test control circuitry (TCC) is further configured to perform (b) a test read operation by transferring bits (B1~Bm) stored in the plurality of latch circuits (LC1~LCm) in a backward direction (BDR) of the open conduction loop to read out an output data pattern (DPO). a semiconductor die (SD) including a central region (CREG) and a peripheral region (PREG) surrounding the central region (CREG); a defect detection circuit (CDC) in the peripheral region (PREG), the defect detection circuit (CDC) arranged in an open conduction loop, the defect detection circuit (CDC) comprising a plurality of latch circuits (LC1~LCm) and a plurality of defect detection conduction paths (CDP1~CDPm-1), each defect detection conduction path of the plurality of defect detection conduction paths (CDP1~CDPm-1) connecting two adjacent latch circuits of the plurality of latch circuits (LC1~LCm); and a test control circuitry (TCC) configured to perform (a) a test write operation by sequentially transferring bits (B1~Bm) of an input data pattern (DPI) in a forward direction (FDR) of the open conduction loop to cause the plurality of latch circuits (LC1~LCm) to store the bits of the input data pattern (DPI) in the plurality of latch circuits (LC1∼LC1m, characterised in that the test control circuitry (TCC) is further configured to perform (b) a test read operation by transferring bits (B1~Bm) stored in the plurality of latch circuits (LC1~LCm) in a backward direction (BDR) of the open conduction loop to read out an output data pattern (DPO).
A method for monitoring the performance of a chromatography column, comprising: a) monitoring an output of said chromatography column to generate multiple sets of process data values corresponding to respective output observations, wherein the process data values comprise step transition data values; b) performing transition analysis on said multiple sets of process data values to generate multiple sets of dispersion parameter data values ; c) applying one or more multivariate statistical analysis methods on said multiple sets of process data values and multiple sets of dispersion parameter data values , according to a hierarchical model, to generate a plurality of performance values that correspond to said output observations, wherein the one or more multivariate statistical analysis methods are selected from the group consisting of: a) Principal Component Analysis (PCA); b) Partial Least Squares (PLS); and c) Least Significant Difference (LSD); and d) graphically displaying said performance values . a) monitoring an output of said chromatography column to generate multiple sets of process data values corresponding to respective output observations, wherein the process data values comprise step transition data values; b) performing transition analysis on said multiple sets of process data values to generate multiple sets of dispersion parameter data values ; c) applying one or more multivariate statistical analysis methods on said multiple sets of process data values and multiple sets of dispersion parameter data values , according to a hierarchical model, to generate a plurality of performance values that correspond to said output observations, wherein the one or more multivariate statistical analysis methods are selected from the group consisting of: a) Principal Component Analysis (PCA); b) Partial Least Squares (PLS); and c) Least Significant Difference (LSD); and d) graphically displaying said performance values .
A method of preparing a metal pattern having a three-dimensional structure, comprising: disposing a metal layer of a film for transferring a metal pattern on a receptor to face the receptor, the film sequentially comprising a photothermal conversion layer; an intermediate layer having a surface energy of 25 mN/m or less; and a metal layer; and transferring an entire continuous metal layer having an uneven structure to the receptor by irradiating the photothermal conversion layer with light wherein the photothermal conversion layer comprises a dye, carbon black, a metal, a metal oxide, or a metal sulfide; wherein the intermediate layer comprises a fluorine-based compound, or a silicon-based compound. disposing a metal layer of a film for transferring a metal pattern on a receptor to face the receptor, the film sequentially comprising a photothermal conversion layer; an intermediate layer having a surface energy of 25 mN/m or less; and a metal layer; and transferring an entire continuous metal layer having an uneven structure to the receptor by irradiating the photothermal conversion layer with light wherein the photothermal conversion layer comprises a dye, carbon black, a metal, a metal oxide, or a metal sulfide; wherein the intermediate layer comprises a fluorine-based compound, or a silicon-based compound.
A composition comprising: 39 to 99 weight percent trans-HFC-1234ze and 61 to 1 weight percent isobutane.
A method of communication at an access terminal, the method comprising: sending an indication that, for different ones of a plurality of power modes, including a first power mode, the access terminal supports dynamic switching between reduced hybrid automatic repeat request, H-ARQ, signaling and normal H-ARQ signaling; sending or receiving a request for the access terminal to switch to the first power mode; and transitioning to the first power mode as a result of the sending or receiving of the request. sending or receiving a request for the access terminal to switch to the first power mode; and transitioning to the first power mode as a result of the sending or receiving of the request.
A device for sampling internal substance in the gastrointestinal tract of an animal, said device comprising of at least one wall which is at least partially expandable, a receptacle and an actuator means for assisting in drawing the sample into the device, said device is held in a closed compressed state by a closure tab, wherein when the closure tab is not in place the wall is movable to an open expanded state by the actuator means, wherein the actuator means is arranged to convert the device from a first configuration with a first volume to a second configuration with a second volume; wherein the receptacle comprises a sample collecting chamber characterised in that the sample collecting chamber can hold a volume of up to 5ml, wherein the sample collecting chamber is an external expandable member.
A peptide conjugate having the formula I R 1 -Z a -L a -Y a -R 2 (I) wherein R 1 is H, C 1-4 alkyl, acetyl, formyl, benzoyl or trifluoroacetyl; R 2 is OH or NH 2 ; Z a is a peptide sequence having the formula IIa wherein Z9 is selected from Glu and Asp; Z13 is selected from Gln and Tyr; Z14 is selected from Met and Leu; Z16 is selected from Glu, Cys and Lys; Z25 is selected from Lys, Phe, Cys and Trp; and Z28 is selected from Asn and Asp or is absent; L a is a peptide sequence having the formula Ib; L1-L2-L3-L4 (Ib) wherein L1 is selected from Orn, 8Ado (8-amino-3,6-dioxaoctanoyl), Cys, Lys and Gln or is absent; L2 is selected from Orn, 8Ado, Cys, Lys and Gln or is absent; L3 is selected from Orn, 8Ado, Cys, Lys and Gln or is absent; and L4 is selected from Orn, 8Ado, Cys, Lys and Gln or is absent; Y a is a peptide sequence having the formula IIc Tyr-Gly-Trp-Y15-Asp-Phe (IIc) wherein Y15 is selected from Leu and Thr; and wherein at least one of Lys or Cys in position Z16 or Z25 of formula IIa is further conjugated to: a lipophilic substituent comprising a palmitoyl, caproyl, lauroyl, myristoyl or stearoyl group; and/or a biotinylic substituent; and/or is pegylated; or a pharmaceutically acceptable salt or solvate thereof. R 1 is H, C 1-4 alkyl, acetyl, formyl, benzoyl or trifluoroacetyl; R 2 is OH or NH 2 ; Z a is a peptide sequence having the formula IIa Z9 is selected from Glu and Asp; Z13 is selected from Gln and Tyr; Z14 is selected from Met and Leu; Z16 is selected from Glu, Cys and Lys; Z25 is selected from Lys, Phe, Cys and Trp; and Z28 is selected from Asn and Asp or is absent; L a is a peptide sequence having the formula Ib; L1 is selected from Orn, 8Ado (8-amino-3,6-dioxaoctanoyl), Cys, Lys and Gln or is absent; L2 is selected from Orn, 8Ado, Cys, Lys and Gln or is absent; L3 is selected from Orn, 8Ado, Cys, Lys and Gln or is absent; and L4 is selected from Orn, 8Ado, Cys, Lys and Gln or is absent; Y a is a peptide sequence having the formula IIc Y15 is selected from Leu and Thr; and wherein at least one of Lys or Cys in position Z16 or Z25 of formula IIa is further conjugated to: a lipophilic substituent comprising a palmitoyl, caproyl, lauroyl, myristoyl or stearoyl group; and/or a biotinylic substituent; and/or is pegylated; or a pharmaceutically acceptable salt or solvate thereof. a lipophilic substituent comprising a palmitoyl, caproyl, lauroyl, myristoyl or stearoyl group; and/or a biotinylic substituent; and/or is pegylated; or a pharmaceutically acceptable salt or solvate thereof.
An array of wet wipe packages displayed via a merchandise display system, the array of wet wipe packages comprising: a) a first package comprising a first wet wipe, wherein the first wet wipe comprises a first coform nonwoven material and a first lotion, and wherein the first lotion is devoid of perfume; b) a second package comprising a second wet wipe, wherein the second wet wipe comprises a second coform nonwoven material and a second lotion, wherein the second lotion comprises a perfume; and c) a third package comprising a third wet wipe, wherein the third wet wipe comprises a third coform nonwoven material and a third lotion, wherein the third lotion is different than the first lotion and the second lotion; wherein the first coform nonwoven material, the second coform nonwoven material, and/or the third coform nonwoven material comprise from 14.5% to 45% cotton by weight of the first coform nonwoven material, the second coform nonwoven material, and/or the third coform nonwoven material; and wherein the first coform nonwoven material, the second coform nonwoven material, and/or the third coform nonwoven material comprise a matrix of a synthetic fiber, cellulosic fiber, and cotton fiber. a) a first package comprising a first wet wipe, wherein the first wet wipe comprises a first coform nonwoven material and a first lotion, and wherein the first lotion is devoid of perfume; b) a second package comprising a second wet wipe, wherein the second wet wipe comprises a second coform nonwoven material and a second lotion, wherein the second lotion comprises a perfume; and c) a third package comprising a third wet wipe, wherein the third wet wipe comprises a third coform nonwoven material and a third lotion, wherein the third lotion is different than the first lotion and the second lotion;
A roof rack load carrying bar , comprising, - a channel for receiving at least one mounting member for attaching a load carrying bar accessory to said load carrying bar , said channel extending at least partly in a length direction (L) of said load carrying bar , - a first and a second cover extending in said length direction (L) of said load carrying bar and being arranged for sealing said channel from an external environment, said first cover being attached to said load carrying bar via a first attachment interface (AI 1 ) provided at a first side of said channel , said second cover being attached to said load carrying bar via a second attachment interface (AI 2 ) provided at a second side of said channel , characterized in that , said first (AI 1 ) and said second (AI 2 ) attachment interface being asymmetrical with respect to each other. - a channel for receiving at least one mounting member for attaching a load carrying bar accessory to said load carrying bar , said channel extending at least partly in a length direction (L) of said load carrying bar , - a first and a second cover extending in said length direction (L) of said load carrying bar and being arranged for sealing said channel from an external environment, said first cover being attached to said load carrying bar via a first attachment interface (AI 1 ) provided at a first side of said channel , said second cover being attached to said load carrying bar via a second attachment interface (AI 2 ) provided at a second side of said channel ,
A magnetic recording medium comprising: a magnetic recording layer on a substrate; and a protective layer (a) on the magnetic recording layer, wherein the protective layer (a) contains an aniline coloring material. wherein the protective layer (a) comprises a protective layer (a1) and a protective layer (a2) in this order as viewed from the side in contact with the magnetic recording layer, wherein both the protective layer (a1) and the protective layer (a2) are a layer containing the aniline coloring material. a magnetic recording layer on a substrate; and a protective layer (a) on the magnetic recording layer, wherein the protective layer (a) contains an aniline coloring material. wherein the protective layer (a) comprises a protective layer (a1) and a protective layer (a2) in this order as viewed from the side in contact with the magnetic recording layer, wherein both the protective layer (a1) and the protective layer (a2) are a layer containing the aniline coloring material.
A method for session transfer between Access Networks for a User Equipment UE, said method comprising insertion of a Service Continuity Application Server, V-SCC-AS, located in a Visited PLMN, V-PLMN, for said UE roaming in said V-PLMN , said method comprising: - a P-CSCF receiving an INVITE for an outgoing session from said User Equipment UE roaming in said Visited PLMN, V-PLMN, - said P-CSCF detecting that said UE is subject to insertion in a signaling path of said Service Continuity Application Server V-SCC-AS located in said V-PLMN, - said P-CSCF forwarding said INVITE to said V-SCC-AS, - said V-SCC-AS anchoring said session, and forwarding said INVITE to a S-CSCF in the Home PLMN, H-PLMN, of said UE. - a P-CSCF receiving an INVITE for an outgoing session from said User Equipment UE roaming in said Visited PLMN, V-PLMN, - said P-CSCF detecting that said UE is subject to insertion in a signaling path of said Service Continuity Application Server V-SCC-AS located in said V-PLMN, - said P-CSCF forwarding said INVITE to said V-SCC-AS, - said V-SCC-AS anchoring said session, and forwarding said INVITE to a S-CSCF in the Home PLMN, H-PLMN, of said UE.
A light route control member comprising: a first substrate ; a first electrode disposed on the first substrate ; a second substrate disposed on the first substrate ; a second electrode disposed under the second substrate ; a light conversion part disposed between the first electrode and the second electrode , and an adhesive layer disposed between the second electrode and the light conversion part , wherein the light conversion part includes a partition wall part and a receiving part that are alternately arranged, wherein the receiving part includes a dispersion and a plurality of light absorbing particles disposed in the dispersion , wherein a shortest width of the receiving part is a first width, wherein a longest width of the receiving part is a second width, wherein a longest width of the partition wall part is a third width, wherein a height of the partition wall part is a first height, characterized in that a third width / first width is 1.5 or more, and a first height / first width is 4 or more, and in that a Log volume resistivity of the adhesive layer is 9 Ω·cm to 15 Ω·cm. a first substrate ; a first electrode disposed on the first substrate ; a second substrate disposed on the first substrate ; a second electrode disposed under the second substrate ; a light conversion part disposed between the first electrode and the second electrode , and an adhesive layer disposed between the second electrode and the light conversion part , wherein the light conversion part includes a partition wall part and a receiving part that are alternately arranged, wherein the receiving part includes a dispersion and a plurality of light absorbing particles disposed in the dispersion , wherein a shortest width of the receiving part is a first width, wherein a longest width of the receiving part is a second width, wherein a longest width of the partition wall part is a third width, wherein a height of the partition wall part is a first height, characterized in that a third width / first width is 1.5 or more, and a first height / first width is 4 or more, and in that a Log volume resistivity of the adhesive layer is 9 Ω·cm to 15 Ω·cm.
A system for pump station optimization, the system comprising: a pump station having a plurality of pump systems for a pipeline ; a sensor configured to sense a type of fluid in the pipeline ; a memory configured to store efficiency as a function of the type of fluid for each of the pump systems ; the system being characterised in that it further comprises a controller configured to select a sub-set of the pump systems as a function of the type of fluid and the efficiencies of the pump systems for the type of fluid, the sub-set configured to provide an outlet pressure for the pump station , wherein the pump systems comprise at least one fixed speed pump and at least one variable speed pump, wherein the efficiency for the variable speed pump includes efficiency as a function of speed by the type of fluid, and wherein the controller is configured to select the variable speed pump and the speed of the variable speed pump as a function of the efficiency as a function of the speed and the type of fluid. a pump station having a plurality of pump systems for a pipeline ; a sensor configured to sense a type of fluid in the pipeline ; a memory configured to store efficiency as a function of the type of fluid for each of the pump systems ; the system being characterised in that it further comprises a controller configured to select a sub-set of the pump systems as a function of the type of fluid and the efficiencies of the pump systems for the type of fluid, the sub-set configured to provide an outlet pressure for the pump station , wherein the pump systems comprise at least one fixed speed pump and at least one variable speed pump, wherein the efficiency for the variable speed pump includes efficiency as a function of speed by the type of fluid, and wherein the controller is configured to select the variable speed pump and the speed of the variable speed pump as a function of the efficiency as a function of the speed and the type of fluid.
Transportation system for production, assembly, and/or logistics processes, comprising at least one rail and at least one driverless rail-bound rail vehicle which for transportation of material is movable along the at least one rail , characterized in that at least one driverless non-rail-bound transportation vehicle is provided for non-rail-bound transportation of material, wherein the driverless non-rail-bound transportation vehicle has mobility elements for a non-rail-bound movement, wherein for rail-bound and non-rail-bound transportation separate vehicles are provided, wherein the at least one driverless non-rail-bound transportation vehicle has a rail piece that is attachable to the at least one rail , and wherein the rail piece that is attachable to the rail and the at least one rail have a rail profile that is at least substantially of identical construction such that the at least one rail-bound rail vehicle which is displaceable along the rail is movable from the rail onto the rail piece that is attached to said rail, or from the rail piece onto the rail .
A method of manufacturing a chewing gum, the method comprising: providing a gum mass ; forming said gum mass into a gum structure having a desired shape using a forming station including a pair of forming rollers , wherein said forming includes using said forming rollers to compress said gum mass into said gum structure with said desired shape; and applying a packaging material to a surface of said gum structure downstream from said forming, wherein said packaging material is applicable to said surface of said gum structure before any intentional cooling of said gum structure. providing a gum mass ; forming said gum mass into a gum structure having a desired shape using a forming station including a pair of forming rollers , wherein said forming includes using said forming rollers to compress said gum mass into said gum structure with said desired shape; and applying a packaging material to a surface of said gum structure downstream from said forming, wherein said packaging material is applicable to said surface of said gum structure before any intentional cooling of said gum structure.
A non-woven fiber article for use in a food production, a medical production, or a pharmaceutical production environment, the non-woven fiber article comprising: a melt-spun polymer fiber having a cross-section and a length; and a stainless steel detectable particulate distributed in the polymer fiber, the stainless steel detectable particulate having a size of less than 31 microns, wherein said stainless steel detectable particulate are flattened spheroids; and present in an amount of 2.0 to 50.0 weight percent loadings of metal to render the polymer fiber detectable, alone or in combination with a secondary functional particulate distributed in or on the polymer fiber to render the polymer fiber chemically responsive to a chemical reactant, change in pH or temperature; and wherein the non-woven fiber article is one of a hair net; a protective suit; a shoe cover; a wipe; packaging; an apron; a beard cover; a mop head. a melt-spun polymer fiber having a cross-section and a length; and a stainless steel detectable particulate distributed in the polymer fiber, the stainless steel detectable particulate having a size of less than 31 microns, wherein said stainless steel detectable particulate are flattened spheroids; and present in an amount of 2.0 to 50.0 weight percent loadings of metal to render the polymer fiber detectable, alone or in combination with a secondary functional particulate distributed in or on the polymer fiber to render the polymer fiber chemically responsive to a chemical reactant, change in pH or temperature; and wherein the non-woven fiber article is one of a hair net; a protective suit; a shoe cover; a wipe; packaging; an apron; a beard cover; a mop head.