mhurhangee/patent-ind-claim-en huggingface dataset:
A controller area network, CAN, bus network access unit , comprising: a first CAN bus ; a second CAN bus ; a first CAN bus transceiver ; a second CAN bus transceiver, wherein the first CAN bus transceiver and the second CAN bus transceiver are respectively communicatively coupled to the first CAN bus and the second CAN bus and are respectively configured to communicate with another first CAN bus and another second CAN bus in another CAN bus network access unit ; a first port , communicatively coupled to the first CAN bus ; and a plurality of variable connection ports comprising a second port , a third port , and a fourth port , wherein the CAN bus network access unit is configurable as a straight-line CAN bus network access unit and as a transplanter CAN bus network access unit by connecting the variable connection ports, wherein: when the bus network access unit is the straight-line CAN bus network access unit, the third port is communicatively coupled to the second CAN bus , and any one of the second port and the fourth port communicatively coupled to neither the first CAN bus nor the second CAN bus ; and when the bus network access unit is the transplanter CAN bus network access unit, any one of the second port , the third port , and the fourth port is connectable to the first CAN bus or the second CAN bus . a first CAN bus ; a second CAN bus ; a first CAN bus transceiver ; a second CAN bus transceiver, wherein the first CAN bus transceiver and the second CAN bus transceiver are respectively communicatively coupled to the first CAN bus and the second CAN bus and are respectively configured to communicate with another first CAN bus and another second CAN bus in another CAN bus network access unit ; a first port , communicatively coupled to the first CAN bus ; and a plurality of variable connection ports comprising a second port , a third port , and a fourth port , wherein the CAN bus network access unit is configurable as a straight-line CAN bus network access unit and as a transplanter CAN bus network access unit by connecting the variable connection ports, wherein: when the bus network access unit is the straight-line CAN bus network access unit, the third port is communicatively coupled to the second CAN bus , and any one of the second port and the fourth port communicatively coupled to neither the first CAN bus nor the second CAN bus ; and when the bus network access unit is the transplanter CAN bus network access unit, any one of the second port , the third port , and the fourth port is connectable to the first CAN bus or the second CAN bus . when the bus network access unit is the straight-line CAN bus network access unit, the third port is communicatively coupled to the second CAN bus , and any one of the second port and the fourth port communicatively coupled to neither the first CAN bus nor the second CAN bus ; and when the bus network access unit is the transplanter CAN bus network access unit, any one of the second port , the third port , and the fourth port is connectable to the first CAN bus or the second CAN bus .
A honeycomb filter for trapping solid components contained in a fluid, comprising: two or more honeycomb segments , each of the honeycomb segments including a plurality of porous partition portions and a trapping layer disposed on each of the partition portions , each of the partition portions forming a cell serving as a flow path of the fluid, the trapping layer being configured to trap solid components contained in the fluid, and a bonding layer for joining the two or more honeycomb segments together, wherein the partition portions define inlet cells having the trapping layer and outlet cells having no trapping layer , and the bonding layer has a lower density in an upstream region than in a midstream region and a downstream region of the honeycomb filter ; the upstream region being a region one third of the total length of the honeycomb filter from an inlet end face; the midstream region being a region extending from a position at one third of the total length of the honeycomb filter to a position at two thirds of the total length of the honeycomb filter ; the downstream region being a region one third of the total length of the honeycomb filter from an outlet end face; the bonding layer including spacers for adjusting the distance between the honeycomb segments , and the spacers having a higher porosity in the upstream region than in the downstream region of the honeycomb filter . two or more honeycomb segments , each of the honeycomb segments including a plurality of porous partition portions and a trapping layer disposed on each of the partition portions , each of the partition portions forming a cell serving as a flow path of the fluid, the trapping layer being configured to trap solid components contained in the fluid, and a bonding layer for joining the two or more honeycomb segments together, wherein the partition portions define inlet cells having the trapping layer and outlet cells having no trapping layer , and the bonding layer has a lower density in an upstream region than in a midstream region and a downstream region of the honeycomb filter ; the upstream region being a region one third of the total length of the honeycomb filter from an inlet end face; the midstream region being a region extending from a position at one third of the total length of the honeycomb filter to a position at two thirds of the total length of the honeycomb filter ; the downstream region being a region one third of the total length of the honeycomb filter from an outlet end face; the bonding layer including spacers for adjusting the distance between the honeycomb segments , and the spacers having a higher porosity in the upstream region than in the downstream region of the honeycomb filter .
Method for controlling an electrical energy distribution network (DN) in which electrical power is provided via a multiplicity of network nodes (N1, ..., N9, N') connected via power lines (L), wherein at least a portion of the network nodes (N1, ..., N9, N') are controllable network nodes (N1, ..., N9) with respective local control units (LC), and at least a portion of these controllable network nodes (N1, ..., N9) are decentralized electrical energy generators or decentralized electrical energy stores, wherein the energy distribution network (DN) is coupled to an energy transmission network (TN) at a point of common coupling (PCC) and provides electrical power (P, Q) to the energy transmission network (TN) at said point of common coupling (PCC), said electrical power originating from the controllable network nodes (N1, ..., N9) of the energy distribution network (DN), wherein, for providing the electrical power (P, Q), a central control unit (CO) in the energy distribution network (DN) communicates with the local control units (LC) of the controllable network nodes (N1, ..., N9) and the energy transmission network (TN) , characterized in that the central control unit (CO) controls the energy distribution network (DN), which constitutes a topological power plant with the network nodes (N1, ..., N9) in a clearly defined network area and with the point of common coupling (PCC) as the unique point of common coupling to the higher-level energy transmission network (TN), with the aid of the communication with the local control units (LC) and the energy transmission network (TN) in such a way that at the unique point of common coupling (PCC) primary control power (PRL) and short-circuit power (KSL) are kept available for the energy transmission network (TN).
A pipe diagnosis apparatus comprising: a time-series data acquisition unit configured to acquire time-series data on pressure of a fluid in piping equipment to be diagnosed; a pressure change measurement unit configured to measure a number of pressure changes in the fluid in a target pipe for each of different amplitudes of pressure changes, from the time-series data on the pressure of the fluid characterised by using a rainflow counting method; and a failure risk estimation unit configured to calculate a degree of fatigue of the target pipe by using i) the measured number of pressure changes for each of different amplitudes of pressure changes and ii) an S-N curve indicating a number of times stress changes having an amplitude, corresponding to each of different amplitudes of pressure changes, repeatedly occur until the target pipe will break, and estimate the calculated degree of fatigue as a failure risk. a time-series data acquisition unit configured to acquire time-series data on pressure of a fluid in piping equipment to be diagnosed; a pressure change measurement unit configured to measure a number of pressure changes in the fluid in a target pipe for each of different amplitudes of pressure changes, from the time-series data on the pressure of the fluid characterised by using a rainflow counting method; and a failure risk estimation unit configured to calculate a degree of fatigue of the target pipe by using i) the measured number of pressure changes for each of different amplitudes of pressure changes and ii) an S-N curve indicating a number of times stress changes having an amplitude, corresponding to each of different amplitudes of pressure changes, repeatedly occur until the target pipe will break, and estimate the calculated degree of fatigue as a failure risk.
A method of controlling mercury re-emission from a combustion process, the method comprising: (a) measuring either ionic mercury concentration, oxidation-reduction potential (ORP), and/or sulfide concentration within a scrubber liquor of a wet flue gas desulpherizer (wFGD); (b) correlating the ionic mercury concentration, ORP, and/or sulfide concentration with an amount of mercury re-emission additive required in the scrubber liquor to reduce and/or prevent mercury re-emission to a selected level; and (c) adjusting the rate of addition of mercury re-emission additive into the scrubber liquor to attain the selected level of mercury re-emission, wherein the mercury re-emission control additive is a polydithiocarbamic compound. (a) measuring either ionic mercury concentration, oxidation-reduction potential (ORP), and/or sulfide concentration within a scrubber liquor of a wet flue gas desulpherizer (wFGD); (b) correlating the ionic mercury concentration, ORP, and/or sulfide concentration with an amount of mercury re-emission additive required in the scrubber liquor to reduce and/or prevent mercury re-emission to a selected level; and (c) adjusting the rate of addition of mercury re-emission additive into the scrubber liquor to attain the selected level of mercury re-emission,
Profiled section for securing a solar panel , said profiled section comprising: - an upright wall with an outer surface finished to glue said solar panel to, and an inner surface ; - a first channel-like element which extends from said outer surface of said upright wall and whose bottom side is aligned with the bottom side of said upright wall ; and - a second channel-like element which extends from said inner surface of said upright wall at the location of the top side of said upright wall , - wherein said first channel-like element and said second channel-like element are formed in such a way that an inverted L-shaped filler piece , placed upside down next to said solar panel , can be clamped into said profiled section . - an upright wall with an outer surface finished to glue said solar panel to, and an inner surface ; - a first channel-like element which extends from said outer surface of said upright wall and whose bottom side is aligned with the bottom side of said upright wall ; and - a second channel-like element which extends from said inner surface of said upright wall at the location of the top side of said upright wall , - wherein said first channel-like element and said second channel-like element are formed in such a way that an inverted L-shaped filler piece , placed upside down next to said solar panel , can be clamped into said profiled section .
A countermeasure method implemented in a microcircuit (IC1), the method comprising steps of: selecting, by the microcircuit, at each cycle of a clock signal (CK) a supply mode of a component (SHi) internal to the microcircuit, from among a first supply mode in which the component is fully supplied by a first supply circuit (MPS) connected to a supply input (PWI) of the microcircuit, and at least one second supply mode in which the component is at least partially supplied by a second supply circuit (Ci, C1i) internal to the microcircuit, the second supply circuit being isolated from the exterior of the microcircuit while it is supplying the component, charging a capacitor (C1i) of the second supply circuit by a source of energy (APS) internal to the microcircuit, while the first supply mode is selected, and discharging the capacitor to supply the component while the second supply mode is selected. selecting, by the microcircuit, at each cycle of a clock signal (CK) a supply mode of a component (SHi) internal to the microcircuit, from among a first supply mode in which the component is fully supplied by a first supply circuit (MPS) connected to a supply input (PWI) of the microcircuit, and at least one second supply mode in which the component is at least partially supplied by a second supply circuit (Ci, C1i) internal to the microcircuit, the second supply circuit being isolated from the exterior of the microcircuit while it is supplying the component, charging a capacitor (C1i) of the second supply circuit by a source of energy (APS) internal to the microcircuit, while the first supply mode is selected, and discharging the capacitor to supply the component while the second supply mode is selected.
A signature input device , comprising: a signature pad configured to receive an electronic signature; an input pen configured to input the electronic signature to the signature pad; a three-dimensional position acquisition sensor configured to acquire three-dimensional position information of the input pen; and a control section configured to, if detecting that the input pen is separated from the signature pad, acquire the three-dimensional position information from the three-dimensional position acquisition sensor and determine whether an electronic signature input support instructing motion is included in the three-dimensional position information, and if the electronic signature input support instructing motion is included, perform electronic signature input support processing on the electronic signature, characterized in that when the electronic signature input support instructing motion is a motion for drawing a circle larger than the electronic signature, the electronic signature input support processing is decision processing for the electronic signature. a signature pad configured to receive an electronic signature; an input pen configured to input the electronic signature to the signature pad; a three-dimensional position acquisition sensor configured to acquire three-dimensional position information of the input pen; and a control section configured to, if detecting that the input pen is separated from the signature pad, acquire the three-dimensional position information from the three-dimensional position acquisition sensor and determine whether an electronic signature input support instructing motion is included in the three-dimensional position information, and if the electronic signature input support instructing motion is included, perform electronic signature input support processing on the electronic signature, characterized in that when the electronic signature input support instructing motion is a motion for drawing a circle larger than the electronic signature, the electronic signature input support processing is decision processing for the electronic signature.
Packaging unit for the transport and/or storage of at least one organic peroxide comprising (i) a transport and/or storage container consisting of an outer container and at least one inner container filled with the at least one organic peroxide; and (ii) at least one bag and/or bottle filled with an extinguishing agent, wherein the at least one bag and/or the at least one bottle is separately introduced into the receiving area of the outer container and/or into the at least one inner container of the transport and/or storage container and is detachably connected or not connected to the outer container and to the inner container filled with peroxide. (i) a transport and/or storage container consisting of an outer container and at least one inner container filled with the at least one organic peroxide; and (ii) at least one bag and/or bottle filled with an extinguishing agent,
A N-phenylcarbamoyl compound of Formula (I) or a salt thereof wherein A is where X is an optionally substituted group selected from the group consisting of a 5- or 6-membered heteroaryl ring, 2,3-dihydro-1H-pyrrolo[3,4-c]pyridinyl, (5- or 6-membered heteroaryl)CO-, (phenyl)CO- and 5- or 6-membered saturated heterocyclic ring; Y is an optionally substituted 5- or 6-membered heteroaryl ring; B is an optionally substituted group selected from the group consisting of a phenyl, a 5- or 6-membered heteroaryl ring, 5- or 6-membered saturated heterocyclic ring, azaspiro(C 7 -C 10 )alkyl and saturated (C 3 -C 6 )cycloalkyl-NH-; R 1 and R 2 are optionally and not simultaneously present and independently selected from (C 1 -C 3 )alkyl and halogen. X is an optionally substituted group selected from the group consisting of a 5- or 6-membered heteroaryl ring, 2,3-dihydro-1H-pyrrolo[3,4-c]pyridinyl, (5- or 6-membered heteroaryl)CO-, (phenyl)CO- and 5- or 6-membered saturated heterocyclic ring; Y is an optionally substituted 5- or 6-membered heteroaryl ring; B is an optionally substituted group selected from the group consisting of a phenyl, a 5- or 6-membered heteroaryl ring, 5- or 6-membered saturated heterocyclic ring, azaspiro(C 7 -C 10 )alkyl and saturated (C 3 -C 6 )cycloalkyl-NH-; R 1 and R 2 are optionally and not simultaneously present and independently selected from (C 1 -C 3 )alkyl and halogen.
A method for manufacturing a film having an oxygen transmission rate in the range of from 1 cc/m 2 /24h to 500 cc/m 2 /24h according to ASTM D-3985, at a relative humidity of more than 50 % at 25°C, or higher than 75% at 25°C, or higher than 85% at 25°C, wherein the method comprises the steps of: providing a first suspension comprising a microfibrillated cellulose in an amount of 60 to 99.9 weight-% based on total dry solid content, wherein the dry content of the suspension is in the range of from 0.1 to 10% by weight, adding a wet strength additive to said first suspension, at an amount of from 0.1 to 10 weight-% based on the amount of microfibrillated cellulose (dry/dry), thereby forming a mixture of the microfibrillated cellulose and the wet strength additive, wherein said wet strength additive is polyaminopolyamide-epichlorohydrin (PAE), co-mixing and fibrillating said microfibrillated cellulose in the presence of said wet strength additive, applying said mixture to a substrate to form a fibrous web and drying said web to form said film. providing a first suspension comprising a microfibrillated cellulose in an amount of 60 to 99.9 weight-% based on total dry solid content, wherein the dry content of the suspension is in the range of from 0.1 to 10% by weight, adding a wet strength additive to said first suspension, at an amount of from 0.1 to 10 weight-% based on the amount of microfibrillated cellulose (dry/dry), thereby forming a mixture of the microfibrillated cellulose and the wet strength additive, wherein said wet strength additive is polyaminopolyamide-epichlorohydrin (PAE), co-mixing and fibrillating said microfibrillated cellulose in the presence of said wet strength additive, applying said mixture to a substrate to form a fibrous web and drying said web to form said film.
An apparatus to facilitate network security and traffic monitoring for input network traffic, comprising: a plurality of microcode controlled state machines , each of said plurality of microcode controlled state machines including a computation kernel , wherein each of said computation kernels includes condition logic configured by microcode stored in an associated control store to evaluate a configured rule in said microcode to produce an associated output, wherein said condition logic includes: a condition analysis circuit configured to compare a first value of an automatically updated internal state variable to a second value stored by said condition logic to evaluate a behavioral rule associated with network traffic conditions; a distribution circuit to route each network traffic segment to each of said plurality of microcode controlled state machines ; an aggregation circuit to generate a decision on which forwarding of said network traffic segment is based, wherein said decision is a logical combination of said associated output of each of said computation kernels ; and an output circuit , wherein said distribution circuit provides said network traffic segment directly to said output circuit for forwarding, bypassing said plurality of microcode controlled state machines , in response to receiving said decision from said aggregation circuit . a plurality of microcode controlled state machines , each of said plurality of microcode controlled state machines including a computation kernel , wherein each of said computation kernels includes condition logic configured by microcode stored in an associated control store to evaluate a configured rule in said microcode to produce an associated output, wherein said condition logic includes: a condition analysis circuit configured to compare a first value of an automatically updated internal state variable to a second value stored by said condition logic to evaluate a behavioral rule associated with network traffic conditions; a distribution circuit to route each network traffic segment to each of said plurality of microcode controlled state machines ; an aggregation circuit to generate a decision on which forwarding of said network traffic segment is based, wherein said decision is a logical combination of said associated output of each of said computation kernels ; and an output circuit , wherein said distribution circuit provides said network traffic segment directly to said output circuit for forwarding, bypassing said plurality of microcode controlled state machines , in response to receiving said decision from said aggregation circuit .