mhurhangee/ep-ind-claims huggingface dataset:
A polyethylene composition suitable for packaging applications comprising: (a) a first polyethylene fraction having a single peak in a temperature range of 45 °C to 87 °C in an elution profile via improved comonomer composition distribution (iCCD) analysis method as defined in the description, wherein a first polyethylene fraction area is an area in the elution profile beneath the single peak of the first polyethylene fraction between 45 °C and 87 °C; and (b) a second polyethylene fraction having a single peak in a temperature range of 95 °C to 120 °C in the elution profile via iCCD analysis method according to the description and wherein a second polyethylene fraction area is an area in the elution profile beneath the single peak of the second polyethylene fraction between 95 °C and 120 °C; wherein the polyethylene composition has a density of 0.924 g/cm 3 to 0.936 g/cm 3 and a melt index (I 2) of 0.25 g/10 minutes to 2.0 g/10 minutes, wherein the first polyethylene fraction area comprises at least 40% of the total area of the elution profile, wherein a ratio of the first polyethylene fraction area to the second polyethylene fraction area is 0.75 to 2.5, and wherein the width of the single peak of the second polyethylene fraction at 50 percent peak height is less than 5.0 °C. (a) a first polyethylene fraction having a single peak in a temperature range of 45 °C to 87 °C in an elution profile via improved comonomer composition distribution (iCCD) analysis method as defined in the description, wherein a first polyethylene fraction area is an area in the elution profile beneath the single peak of the first polyethylene fraction between 45 °C and 87 °C; and (b) a second polyethylene fraction having a single peak in a temperature range of 95 °C to 120 °C in the elution profile via iCCD analysis method according to the description and wherein a second polyethylene fraction area is an area in the elution profile beneath the single peak of the second polyethylene fraction between 95 °C and 120 °C;
A dosimeter for detecting an ionizing radiation, comprising a polymeric matrix of a light-sensitive material, in which particles able to produce free radicals when exposed to the ionizing radiation, are dispersed, the dosimeter being characterized in that said particles are diamond particles having a submicron or nano size and the surface of which has a negative electron affinity.
A method (1300; 1500) of wireless communication at a first device, characterized by comprising: receiving (1305; 1515) a set of data blocks during a first interval from a second device, wherein a quantity of the set of data blocks is based on a peak data rate of a modem and a size of each data block in the set of data blocks is based on a sustained data rate of the modem; powering down (1310; 1515) one or more radio frequency, RF, components of the modem during a second interval following the first interval, wherein a length of the second interval is based on one or more parameters from a group consisting of the peak data rate, the sustained data rate, and a memory buffer capacity; and processing (1315; 1520) the set of data blocks during the second interval based on the sustained data rate. receiving (1305; 1515) a set of data blocks during a first interval from a second device, wherein a quantity of the set of data blocks is based on a peak data rate of a modem and a size of each data block in the set of data blocks is based on a sustained data rate of the modem; powering down (1310; 1515) one or more radio frequency, RF, components of the modem during a second interval following the first interval, wherein a length of the second interval is based on one or more parameters from a group consisting of the peak data rate, the sustained data rate, and a memory buffer capacity; and processing (1315; 1520) the set of data blocks during the second interval based on the sustained data rate.
A computer implemented method to mitigate a security attack against a target virtual machine, VM, in a virtualised computing environment, the target VM having a target VM configuration including configuration parameters, and the security attack exhibiting a particular attack characteristic, the method comprising: training a machine learning algorithm as a classifier based on a plurality of training data items, each training data item corresponding to a training VM and including a representation of parameters for a configuration of the training VM and a representation of characteristics of security attacks for the training VM, the characteristics relating to successful attacks against the training VM; generating a first data structure for storing one or more relationships between VM configuration parameters and attack characteristics, wherein the first data structure is generated by sampling the trained machine learning algorithm to identify the relationships; receiving a second data structure storing a directed graph representation of one or more sequences of VM configuration parameters for achieving the particular attack characteristic of the security attack, the VM parameters in the directed graph being determined based on the first data structure; identifying VM parameters of the target VM used in the security attack as a subset of sequences in the directed graph corresponding to VM parameters of the target VM; and supplementing the target VM configuration with a security facility associated with at least one of the identified VM parameters necessary to protect the target VM from the attack. training a machine learning algorithm as a classifier based on a plurality of training data items, each training data item corresponding to a training VM and including a representation of parameters for a configuration of the training VM and a representation of characteristics of security attacks for the training VM, the characteristics relating to successful attacks against the training VM; generating a first data structure for storing one or more relationships between VM configuration parameters and attack characteristics, wherein the first data structure is generated by sampling the trained machine learning algorithm to identify the relationships; receiving a second data structure storing a directed graph representation of one or more sequences of VM configuration parameters for achieving the particular attack characteristic of the security attack, the VM parameters in the directed graph being determined based on the first data structure; identifying VM parameters of the target VM used in the security attack as a subset of sequences in the directed graph corresponding to VM parameters of the target VM; and supplementing the target VM configuration with a security facility associated with at least one of the identified VM parameters necessary to protect the target VM from the attack.
A method for mapping a plurality of lighting fixtures of a lighting system to a plurality of spatial locations, each lighting fixture having an occupancy sensor, the method comprising: generating a first dataset corresponding to a first environmental profile for the plurality of lighting fixtures based on measurements by the occupancy sensor of each of the plurality of lighting fixtures, wherein the first environmental profile comprises at least one of a distribution of occupant motion over time, a flow of occupancy traffic over a period of time, or a pattern of occupancy and motion over a period of time; and a second dataset corresponding to a second environmental profile for the plurality of spatial locations based on a floor plan including the plurality of spatial locations, wherein the second environmental profile comprises an estimated occupancy profile for the lighting system based on the floor plan; identify one or more possible mappings of the plurality of lighting fixtures to the plurality of spatial locations; and when more than one possible mapping is identified, identifying a single mapping from the possible mappings based on matching the first dataset to the second dataset. generating a first dataset corresponding to a first environmental profile for the plurality of lighting fixtures based on measurements by the occupancy sensor of each of the plurality of lighting fixtures, wherein the first environmental profile comprises at least one of a distribution of occupant motion over time, a flow of occupancy traffic over a period of time, or a pattern of occupancy and motion over a period of time; and a second dataset corresponding to a second environmental profile for the plurality of spatial locations based on a floor plan including the plurality of spatial locations, wherein the second environmental profile comprises an estimated occupancy profile for the lighting system based on the floor plan; identify one or more possible mappings of the plurality of lighting fixtures to the plurality of spatial locations; and when more than one possible mapping is identified, identifying a single mapping from the possible mappings based on matching the first dataset to the second dataset.
Method for implementing isolation monitoring, carried out by at least one device (2A, 2B, 2C, 4), such method comprising: - comparing (504, 603, 702, 706, 903) a first piece of positional data with at least a second piece of positional data, wherein the first piece of positional data is assigned to a first transport unit wherein the second piece of positional data is assigned to a second transport unit, and wherein the positional data are respectively assigned to a transport unit from a group of transport units, and - if as a result of the comparison no similarity between the first and the second piece of positional data is ascertained (505, 604, 703, 707, 904), outputting a piece of information concerning the result of the comparison, wherein an isolation alarm is output, and increasing a frequency, with which the first and/or second piece of positional data is generated. - comparing (504, 603, 702, 706, 903) a first piece of positional data with at least a second piece of positional data, wherein the first piece of positional data is assigned to a first transport unit wherein the second piece of positional data is assigned to a second transport unit, and wherein the positional data are respectively assigned to a transport unit from a group of transport units, and - if as a result of the comparison no similarity between the first and the second piece of positional data is ascertained (505, 604, 703, 707, 904), outputting a piece of information concerning the result of the comparison, wherein an isolation alarm is output, and increasing a frequency, with which the first and/or second piece of positional data is generated.
A process for polymerizing or copolymerizing ethylenically unsaturated monomers in the presence of free-radical polymerization initiators, wherein the polymerization is carried out at temperatures from 100°C to 350°C and pressures in the range of from 110 MPa to 500 MPa in a continuously operated polymerization reactor which is controlled by a pressure control valve at the outlet of the polymerization reactor and the monomer mixture is brought to the polymerization pressure by a combination of a primary compressor and a secondary compressor, the process comprising continuously monitoring the pressure within the polymerization reactor by one or more pressure sensors creating a pressure signal indicative of the pressure within the polymerization reactor, feeding the pressure signal to a controller for controlling the control valve and having the controller altering the opening of the pressure control valve to control the pressure within the polymerization reactor, wherein the controller starts an emergency shutdown program when the pressure control valve closes more than a preset threshold value and the pressure within the polymerization reactor decreases below a preset pressure threshold.
A circuit breaker, comprising: an arc chamber; an arc chute comprising a plurality of arc plates in the arc chamber, stacked with top, medial and lower arc plates (25t, 25i, 25l); a line conductor in the arc chamber, the line conductor having a lower body portion and an upwardly extending arm with a free end, the arm residing above the lower body portion; a stationary contact held by the arm of the line conductor, the stationary contact residing adjacent to the arc plates; and a non-ferromagnetic arc runner (31, 40; 40′′′) held by the line conductor in the arc chamber, the circuit breaker characterised in that the arc runner (31, 40; 40′′′) is attached to the lower body portion of the line conductor and resides on both sides of and extends forward of the stationary contact with a portion residing under a bottom arc plate so that the portion of the arc runner (31, 40; 40′′′) residing under the bottom arc plate has a surface opposed to a bottom surface of the bottom arc plate. an arc chamber; an arc chute comprising a plurality of arc plates in the arc chamber, stacked with top, medial and lower arc plates (25t, 25i, 25l); a line conductor in the arc chamber, the line conductor having a lower body portion and an upwardly extending arm with a free end, the arm residing above the lower body portion; a stationary contact held by the arm of the line conductor, the stationary contact residing adjacent to the arc plates; and a non-ferromagnetic arc runner (31, 40; 40′′′) held by the line conductor in the arc chamber, the circuit breaker characterised in that the arc runner (31, 40; 40′′′) is attached to the lower body portion of the line conductor and resides on both sides of and extends forward of the stationary contact with a portion residing under a bottom arc plate so that the portion of the arc runner (31, 40; 40′′′) residing under the bottom arc plate has a surface opposed to a bottom surface of the bottom arc plate.
A method of receiving a sidelink signal by a user equipment, UE, in a wireless communication system, comprising: receiving a Physical sidelink control channel, PSCCH, scheduling resources for a Physical sidelink shared channel, PSSCH; and receiving, based on the PSCCH, the PSSCH piggybacked with control information for a new data indicator, NDI, wherein the PSCCH includes information related to the number of retransmissions scheduled for a single medium access control protocol data unit, MAC PDU, included in the PSSCH. receiving a Physical sidelink control channel, PSCCH, scheduling resources for a Physical sidelink shared channel, PSSCH; and receiving, based on the PSCCH, the PSSCH piggybacked with control information for a new data indicator, NDI, wherein the PSCCH includes information related to the number of retransmissions scheduled for a single medium access control protocol data unit, MAC PDU, included in the PSSCH.
A use of an optical layered body wherein of the optical layered body is disposed on a viewer-side surface of a polarizing element on a viewer-side surface of a vertically disposed image display device which is placed in a room, the optical layered body comprising an optical functional layer on a viewer-side surface of a light-transmitting substrate formed from polyethylene terephthalate or polyethylene naphthalate having in-plane birefringence, wherein at a wavelength of 589.3 nm the light-transmitting substrate has a retardation of 3000 nm or greater and a fast axis that is orthogonal to a slow axis, and the difference between refractive indexes (nx - ny) is 0.05 or greater, where nx represents a refractive index in the slow axis direction and ny represents a refractive index in the fast axis direction, characterised in that, the slow axis along a direction of the light-transmitting substrate's greater refractive index is arranged vertically, in said room the slow axis of the light-transmitting substrate is orthogonal to a predominant vibration direction of the light reflected on a wall surface or floor surface of said room and the fast axis is in parallel with S-polarized light, and the refractive index of the optical functional layer is lower than ny.
A method implemented in a crude oil refining facility, the method comprising: heating a first plurality of streams in a first plurality of plants in a crude oil facility using a second plurality of streams in a second plurality of plants in the crude oil refining facility using a plurality of heat exchangers that receive at least one of the first plurality of streams and at least one of the second plurality of streams, characterised in that the first plurality of plants comprises an amine regeneration plant, an aromatics complex benzene extraction unit, a sour water stripper plant, a sulfur recovery plant, a gas separation plant, and wherein the second plurality of plants comprises an aromatics plant xylene products separation unit, a hydrocracking plant, a diesel hydro-treating plant.
Cosmetic product for altering the natural color of keratinous fibers, in particular human hair, comprising (i) at least one package comprising at least one multilayer film comprising at least one first polymer layer, at least one second polymer layer and at least one barrier layer, and (ii) at least one cosmetic composition packaged in the package and comprising: a) at least one oxidizing compound, b) at least one C 8 -C 30 alcohol, c) at least one anionic surfactant and d) at least one nonionic surfactant characterized in that the first polymer layer is formed of polyethylene terephthalate; the second polymer layer is formed of polyethylene; and the barrier layer is formed of metallized oriented polypropylene. (i) at least one package comprising at least one multilayer film comprising at least one first polymer layer, at least one second polymer layer and at least one barrier layer, and (ii) at least one cosmetic composition packaged in the package and comprising: a) at least one oxidizing compound, b) at least one C 8 -C 30 alcohol, c) at least one anionic surfactant and d) at least one nonionic surfactant a) at least one oxidizing compound, b) at least one C 8 -C 30 alcohol, c) at least one anionic surfactant and d) at least one nonionic surfactant
Device for precision processing of a workpiece circumference surface arranged eccentrically in relation to a workpiece axis of a workpiece, in particular a crank pin of a crank shaft or a cam shaft, with a clamping means for clamping a precision processing tool against the workpiece circumference surface, whereby a drive means is envisaged, with which a reach of efficacy of the clamping means can be driven, whereby the reach of efficacy of the clamping means can be driven by means of a first drive along a first movement path and by means of a second drive along a second movement path positioned at an angle from the first movement path, whereby the first movement path and the second movement path define a movement plane extending transverse to the workpiece axis, characterised in that the clamping means comprises bowl-shaped clamping elements (38, 40) for clamping the precision processing tool, and in that a switchable connection means for producing and interrupting an operating connection between the first drive and the clamping means and/or between the second drive and the clamping means is envisaged.
Device for sensing the belt tensioning force of a belt strap, in particular a tensioning belt for securing loads on vehicles, comprising a housing having an opposing lower part and upper part, the housing further comprising a belt entry side and a belt exit side for guiding the belt strap through the housing, two support regions (6a, 6b) for the belt strap being formed on the upper or lower part (2b, 2a), at least one displacement element which is movable transversely to the longitudinal direction of the belt strap being arranged on the lower or upper part (2a, 2b) opposite the two support regions (6a, 6b), which displacement element is operatively connected to at least one sensor element in order to detect the belt tensioning force of the belt strap as a result of a deflection of the displacement element initiated by the belt tensioning force of the belt strap, and a battery module being provided for supplying an evaluation and transmitting unit with electrical energy, the battery module being provided for supplying a display unit with electrical energy, characterized in that the display unit comprises at least one LED lamp, and in that a plurality of LED lamps are provided, which are divided into load-dependent and/or charge-dependent regions (39a, 39b).
A hybrid organic-inorganic polyimide membrane having a thickness of 500 nm or less, wherein the polyimide is a network of alternating (a) bis-imide and/or tris-imide units and (b) polyhedral oligomeric silsesquioxane (POSS) groups, the bis-imide units (a) having formula 1 wherein A represents an organic moiety having 2-22 carbon atoms; the tris-imide units (a) having formula 2 wherein A' represents an organic moiety having 6-22 carbon atoms; the POSS groups (b) having formula 3 Q m R (2n-m) Si 2n O 3n.xH 2 O 3 wherein Q is C p H q bound to a silicon atom, R is hydrogen, hydroxy or C 1 -C 4 alkyl, alkoxy, hydroxyalkyl, aminoalkyl or optionally N-alkylated ammonioalkyl, bound to a silicon atom, m is from 2 up to 2n, n is from 2 up to 6, p = 1 to 6; q = 2(p - r) with r = 0 to 4 and r < p; and x is from 0 to 2n-1; wherein a nitrogen atom of two or more of the bis-imide or tris-imide units is linked to a group Q of the POSS group; wherein the membrane is obtainable by a process which comprises the step of: contacting a solution of a POSS polyamine having formula 10 (H 2 NQ) m R (2n-m) Si 2n O 3n 10 wherein Q, R, m and n are as defined above, or its acid-addition salt, in a polar solvent, with a solution of the organic dianhydride of formula 5 wherein A is as defined above, or its corresponding trianhydride, in an organic solvent which is immiscible with said polar solvent. Q is C p H q bound to a silicon atom, R is hydrogen, hydroxy or C 1 -C 4 alkyl, alkoxy, hydroxyalkyl, aminoalkyl or optionally N-alkylated ammonioalkyl, bound to a silicon atom, m is from 2 up to 2n, n is from 2 up to 6, p = 1 to 6; q = 2(p - r) with r = 0 to 4 and r < p; and x is from 0 to 2n-1; wherein a nitrogen atom of two or more of the bis-imide or tris-imide units is linked to a group Q of the POSS group;