mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting malicious activity on endpoint computer machines in organizational environments by utilizing anomaly detection in web access patterns, comprising: a) receiving input raw data including raw web proxy access data and error log data; b) preprocessing and reformatting said input raw data by dividing said input raw data into fixed-size website sequences, wherein each sequence is from a specific user; c) running an LSTM algorithm on the preprocessed data and obtaining a loss score for each sequence, such that the greater the loss score, the higher the suspiciousness of the sequence; d) running a pre-trained classifier for classifying each website as being benign or suspicious; and e) for each suspicious machine, calculating a severity score using data provided by said LSTM algorithm, along with additional data provided by said proxy, wherein said method further comprises the steps of: f) investigating suspicious machines by using a machine component for visualizing suspicious machines in a predetermined period, a top-machines component for showing most suspicious machines of a current day, ordered according to a severity score, and a website component for showing websites accessed by a machine selected by the machine component or the top-machines component; and g) creating a similarity graph that represents the machines that have similar behavior to the machine selected by the machine component or the top-machines component to find malicious software which infects a machine in an organization. a) receiving input raw data including raw web proxy access data and error log data; b) preprocessing and reformatting said input raw data by dividing said input raw data into fixed-size website sequences, wherein each sequence is from a specific user; c) running an LSTM algorithm on the preprocessed data and obtaining a loss score for each sequence, such that the greater the loss score, the higher the suspiciousness of the sequence; d) running a pre-trained classifier for classifying each website as being benign or suspicious; and e) for each suspicious machine, calculating a severity score using data provided by said LSTM algorithm, along with additional data provided by said proxy, wherein said method further comprises the steps of: f) investigating suspicious machines by using a machine component for visualizing suspicious machines in a predetermined period, a top-machines component for showing most suspicious machines of a current day, ordered according to a severity score, and a website component for showing websites accessed by a machine selected by the machine component or the top-machines component; and g) creating a similarity graph that represents the machines that have similar behavior to the machine selected by the machine component or the top-machines component to find malicious software which infects a machine in an organization.
A Universal Serial Bus USB Type-C/Power Delivery PD controller chip comprising: a first pin for coupling to receive a first voltage from a host device; a second pin for coupling to receive a second voltage; a third pin for coupling to a configuration control CC pin of a USB connector; a VCONN power supply circuit coupled to selectively pass the first voltage to the third pin, the VCONN power supply circuit comprising a first blocking field effect transistor BFET coupled in series with a hot-swap field effect transistor HSFET between the first pin and the third pin, and a first Zener diode and a second Zener diode coupled anode-to-anode between a source and a gate of the HSFET; a cable detection circuit comprising a second BFET coupled between the second pin and the third pin, and a third Zener diode coupled between a gate of the second BFET and a lower rail; and a power delivery physical layer circuit comprising a receiver and a transmitter, the receiver being coupled to the third pin through a third BFET, the transmitter being coupled to the third pin through a fourth BFET, a fourth Zener diode coupled between a gate of the third BFET and the lower rail and a fifth Zener diode coupled between a gate of the fourth BFET and the lower rail. a first pin for coupling to receive a first voltage from a host device; a second pin for coupling to receive a second voltage; a third pin for coupling to a configuration control CC pin of a USB connector; a VCONN power supply circuit coupled to selectively pass the first voltage to the third pin, the VCONN power supply circuit comprising a first blocking field effect transistor BFET coupled in series with a hot-swap field effect transistor HSFET between the first pin and the third pin, and a first Zener diode and a second Zener diode coupled anode-to-anode between a source and a gate of the HSFET; a cable detection circuit comprising a second BFET coupled between the second pin and the third pin, and a third Zener diode coupled between a gate of the second BFET and a lower rail; and a power delivery physical layer circuit comprising a receiver and a transmitter, the receiver being coupled to the third pin through a third BFET, the transmitter being coupled to the third pin through a fourth BFET, a fourth Zener diode coupled between a gate of the third BFET and the lower rail and a fifth Zener diode coupled between a gate of the fourth BFET and the lower rail.
System consisting of an extractor hood device comprising a housing and an exhaust line arranged in the housing, a mount on which a first coupling member of the exhaust line is held, a support by means of which the extractor hood device can be fixed to a wall or ceiling, and a second coupling member of an exhaust duct extending in the wall or ceiling, the first coupling member being automatically coupled in a flow-conducting manner to the second coupling member when the system is mounted and at least one of the two coupling members comprising a means which automatically aligns the two coupling members (26, 34) with one another, characterised in that, when mounted, the extractor hood device is held on the support by the mount arranged on the housing, in that the second coupling member is held on the support, and in that the first coupling member is movably held relative to the mount so as to be substantially perpendicular to the coupling direction, and the second coupling member is movably held relative to the support so as to be substantially perpendicular to the coupling direction.
A steering column device, comprising: an outer column having a cylindrical shape and arranged along a vehicle longitudinal direction; an inner column having a cylindrical shape and inserted into the outer column so as to be movable in a cylinder-axis direction of the outer column; a lock mechanism having an operating lever operable to a locked position to fasten the inner column to the outer column and an unlocked position to allow the inner column to be adjusted in a cylinder-axis direction of the outer column; a restricting member penetrating through a cylinder wall of the outer column from a side of an outer circumferential face of the outer column and held in a restricting position where the restricting member can be engaged with the inner column, the restricting member being also separable from the restricting position; an auxiliary restricting member engaging with the restricting member and held in a holding position to hold the restricting member in the restricting position; and a coupling mechanism which couples the auxiliary restricting member with the inner column when the lock mechanism is in the locked position, characterised by the fact that when a load exceeding a set value is applied to the inner column in the cylinder-axis direction, the auxiliary restricting member moves together with the inner column, and the auxiliary restricting member and the restricting member are disengaged from each other, whereby the restricting member is separated from the restricting position where the restricting member can be engaged with the inner column. an outer column having a cylindrical shape and arranged along a vehicle longitudinal direction; an inner column having a cylindrical shape and inserted into the outer column so as to be movable in a cylinder-axis direction of the outer column; a lock mechanism having an operating lever operable to a locked position to fasten the inner column to the outer column and an unlocked position to allow the inner column to be adjusted in a cylinder-axis direction of the outer column; a restricting member penetrating through a cylinder wall of the outer column from a side of an outer circumferential face of the outer column and held in a restricting position where the restricting member can be engaged with the inner column, the restricting member being also separable from the restricting position; an auxiliary restricting member engaging with the restricting member and held in a holding position to hold the restricting member in the restricting position; and a coupling mechanism which couples the auxiliary restricting member with the inner column when the lock mechanism is in the locked position, characterised by the fact that when a load exceeding a set value is applied to the inner column in the cylinder-axis direction, the auxiliary restricting member moves together with the inner column, and the auxiliary restricting member and the restricting member are disengaged from each other, whereby the restricting member is separated from the restricting position where the restricting member can be engaged with the inner column.
A substantially isocyanate free, ambient temperature curable, multicomponent primer composition useful as a sandable automotive primer and having a pigment volume concentration (%PVC) of from 20 to 60 comprising one or more pigments, extenders and/or fillers, one or more a) polycarbamates of an alkyd polyol, an acrylic polyol, or their mixtures, and one or more b) polyaldehydes or acetals or hemiacetals thereof in a component separate from the one or more polycarbamates, wherein the composition has from 0 to 5 mole percent (mol%) of isocyanate groups, based on total moles of carbamate groups plus isocyanate groups in the composition.
Electric connection device for two electric devices, for example modular devices (20, 21), secured in an attached manner onto a rail type securing element enabling them to be arranged in a row, said devices (20, 21) each having at least one upstream feed connecting terminal block able to secure at least one feed conductor to a terminal of the device, at least one feed conductor originating from a bridging bar formed by a stringer (3, 3') connected to a phase or in neutral, and rigid lamellae spaced apart by a predetermined regular distance p, said lamellae being provided to be secured individually to the terminal of a device (20, 21) via one of said terminal blocks, the connecting device comprising two conducting strips (5, 5') connected electrically and spaced apart from said distance p and a current sensor provided for measuring the current passing from one strip (5, 5') to the other (5', 5), characterised in that it comprises an electrically insulating separating element positioned such that it takes the place of a portion of the stringer between two successive lamellae when the strips (5, 5') are inserted into two adjacent terminal blocks of attached electrical devices (20, 21).
Reformer tube (208A, 208B, 308A, 308B) for a steam reformer, comprising: (a) a pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) arranged to contain a catalyst (220A, 220B, 320A, 320B) as a bulk catalyst, a catalyst bed of catalyst particles, structured packing, honeycomb catalyst, or combinations thereof; (b) an inlet end of the pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) connectable to a reactant feed line (204A, 204B, 304A, 304B); (c) the reactant feed line (204A, 204B, 304A, 304B) connectable to a reactant feed system (202A, 202B, 302); (d) an outlet end of the pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) connectable to a product discharge line (216A, 216B, 316A, 316B); (e) the product discharge line (216A, 216B, 316A, 316B) connectable to a product gas manifold (218, 318); wherein (f) the pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) is supported in the direction of its longitudinal axis by means of a fixed-floating bearing arrangement to allow thermal expansion of the pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) in longitudinal direction, wherein (g) the fixed bearing (214A, 214B, 314A, 314B) is located at the outlet end of the outer pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) and the floating bearing (206A, 206B, 306A, 306B) is located at the inlet end of the outer pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B). (a) a pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) arranged to contain a catalyst (220A, 220B, 320A, 320B) as a bulk catalyst, a catalyst bed of catalyst particles, structured packing, honeycomb catalyst, or combinations thereof; (b) an inlet end of the pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) connectable to a reactant feed line (204A, 204B, 304A, 304B); (c) the reactant feed line (204A, 204B, 304A, 304B) connectable to a reactant feed system (202A, 202B, 302); (d) an outlet end of the pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) connectable to a product discharge line (216A, 216B, 316A, 316B); (e) the product discharge line (216A, 216B, 316A, 316B) connectable to a product gas manifold (218, 318); wherein (f) the pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) is supported in the direction of its longitudinal axis by means of a fixed-floating bearing arrangement to allow thermal expansion of the pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) in longitudinal direction, wherein (g) the fixed bearing (214A, 214B, 314A, 314B) is located at the outlet end of the outer pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B) and the floating bearing (206A, 206B, 306A, 306B) is located at the inlet end of the outer pressure-bearing cylindrical jacket tube (210A, 210B, 310A, 310B).
An image erasing apparatus, comprising: a sheet supply portion to supply a sheet; an ejector (19, 20) to which the sheet is ejected; a first conveying path to form a conveying path from the sheet supply portion toward the ejector to convey the sheet in a sheet conveying direction; a reader arranged on the first conveying path to read an image on a surface of the sheet; a second conveying path branching from the first conveying path at a downstream side of the reader in the sheet conveying direction and merging with the first conveying path at a meeting point situated between the sheet supply portion and the reader; an erasure to erase the image on the sheet formed with image erasable material; a switching portion arranged on the first conveying path at the downstream side of the reader in the sheet conveying direction to switch the sheet conveying direction to a direction of the ejector (19, 20) or to a direction of the erasure (19, 20), said second conveying path branching from the first conveying path at a position where the switching portion is arranged; a controller to control so as to change the sheet conveying direction by the switching portion; characterized in that the erasure is arranged on the second conveying path. a sheet supply portion to supply a sheet; an ejector (19, 20) to which the sheet is ejected; a first conveying path to form a conveying path from the sheet supply portion toward the ejector to convey the sheet in a sheet conveying direction; a reader arranged on the first conveying path to read an image on a surface of the sheet; a second conveying path branching from the first conveying path at a downstream side of the reader in the sheet conveying direction and merging with the first conveying path at a meeting point situated between the sheet supply portion and the reader; an erasure to erase the image on the sheet formed with image erasable material; a switching portion arranged on the first conveying path at the downstream side of the reader in the sheet conveying direction to switch the sheet conveying direction to a direction of the ejector (19, 20) or to a direction of the erasure (19, 20), said second conveying path branching from the first conveying path at a position where the switching portion is arranged; a controller to control so as to change the sheet conveying direction by the switching portion; characterized in that the erasure is arranged on the second conveying path.
A side impact protection device (15a, 15b) for a child sitting on a booster cushion in a vehicle seat, said side impact protection device (15a, 15b) comprising a separate elongated body having a first end portion with a first fastening element (23a, 23b) and a second end portion with a second fastening element (25a, 25b), said side impact protection device (15a, 15b) being adapted to be mounted in a vehicle by means of said first (23a, 23b) and second (25a, 25b) fastening elements and to extend along a backrest of said vehicle seat with said first end portion and said first fastening element (23a, 23b) at a first anchorage site (19a, 19b) at an upper end of said backrest and with said second end portion and said second fastening element (25a, 25b) at a second anchorage site (21a, 21b) at a lower end of said backrest.
A molecule having the following formula wherein: Ar 1 is wherein, R 1, R 2, R 3, R 4, and R 5 are each independently selected from the group consisting of H and (C 1 -C 4)haloalkoxy; Het is wherein, R 6 is H; L 1 is selected from the group consisting of and wherein, R 7, R 8, R 9, and R 10 are each independently H; Ar 2 is wherein: X 1 is selected from the group consisting of N and C R 13, X 2 is selected from the group consisting of N and C R 14, and R 11, R 12, R 13, and R 14 are each independently selected from the group consisting of H, F, Cl, (C 1 -C 4)alkyl, and (C 1 -C 4)alkoxy; R 15 is H; Q 1 is O; Q 2 is S; R 16 is; R 17 is; L 2 is wherein, R 20, R 21, R 22, R 23, and R 24 are each independently selected from the group consisting of H, F, (C 1 -C 4)alkyl, and (C 1 -C 4)alkyl-O-(C 1 -C 4)alkyl; and R 16 and R 17 along with C x (Q 2)(N x), is wherein, R 18 and R 19 are each independently H. Ar 1 is wherein, R 1, R 2, R 3, R 4, and R 5 are each independently selected from the group consisting of H and (C 1 -C 4)haloalkoxy; Het is wherein, R 6 is H; L 1 is selected from the group consisting of and wherein, R 7, R 8, R 9, and R 10 are each independently H; Ar 2 is wherein: X 1 is selected from the group consisting of N and C R 13, X 2 is selected from the group consisting of N and C R 14, and R 11, R 12, R 13, and R 14 are each independently selected from the group consisting of H, F, Cl, (C 1 -C 4)alkyl, and (C 1 -C 4)alkoxy; X 1 is selected from the group consisting of N and C R 13, X 2 is selected from the group consisting of N and C R 14, and R 11, R 12, R 13, and R 14 are each independently selected from the group consisting of H, F, Cl, (C 1 -C 4)alkyl, and (C 1 -C 4)alkoxy; R 15 is H; Q 1 is O; Q 2 is S; R 16 is; R 17 is; L 2 is wherein, R 20, R 21, R 22, R 23, and R 24 are each independently selected from the group consisting of H, F, (C 1 -C 4)alkyl, and (C 1 -C 4)alkyl-O-(C 1 -C 4)alkyl; and R 16 and R 17 along with C x (Q 2)(N x), is wherein, R 18 and R 19 are each independently H.
A method for migration of containers in a container orchestration platform between compute nodes of a seamless computing platform comprising the following steps: - continuously monitoring, by a central master node or distributed among the compute nodes the state of the compute nodes of the seamless computing platform and/or of performance metrics of the running applications; on determining a trigger, identifying a container to be moved from a current compute node to a target compute node of a number of compute nodes; - restarting the container on the target compute node; characterized in the steps - generating a container information of the container to be moved, saving the container information in a storage that can be accessed by all compute nodes of the seamless computing platform, and generating a reference information about a storage location of the container information, where the container information at least comprises a container context, comprising at least deployment instructions, and the current state of the container to be moved; - transferring the reference information from the compute node from which the container has to be moved to the central master node; - processing the container information to retrieve the container to be moved and its current state; - restarting the container on the target compute node with its current state when generating the container information, wherein the step of restarting the container on the target compute node is carried out by the target compute node upon receiving a start command, comprising the container information and/or the reference information, from the master node. - continuously monitoring, by a central master node or distributed among the compute nodes the state of the compute nodes of the seamless computing platform and/or of performance metrics of the running applications; on determining a trigger, identifying a container to be moved from a current compute node to a target compute node of a number of compute nodes; - restarting the container on the target compute node; - generating a container information of the container to be moved, saving the container information in a storage that can be accessed by all compute nodes of the seamless computing platform, and generating a reference information about a storage location of the container information, where the container information at least comprises a container context, comprising at least deployment instructions, and the current state of the container to be moved; - transferring the reference information from the compute node from which the container has to be moved to the central master node; - processing the container information to retrieve the container to be moved and its current state; - restarting the container on the target compute node with its current state when generating the container information, wherein the step of restarting the container on the target compute node is carried out by the target compute node upon receiving a start command, comprising the container information and/or the reference information, from the master node.
A bacterial cellulose produced by a bacterium, having a physical characteristic of (a) below: (a) a transmittance of light, at a wavelength of 500 nm and an optical path length of 10mm, of water containing the bacterial cellulose at a final concentration of 0.1 ± 0.006% (w/w) of 35% or more. (a) a transmittance of light, at a wavelength of 500 nm and an optical path length of 10mm, of water containing the bacterial cellulose at a final concentration of 0.1 ± 0.006% (w/w) of 35% or more.
A boarding bridge including an inner tunnel, and an outer tunnel which is provided to surround at least a part of the inner tunnel from a back side of the inner tunnel and to be contracted and moved in a forward direction or to be expanded and moved in a backward direction with respect to the inner tunnel, the boarding bridge comprising: an inner tunnel walking deck which is provided above a floor of the inner tunnel with a space therebetween, and forms a walking passage of the inner tunnel; and an outer tunnel walking deck which is provided above a floor of the outer tunnel with a space therebetween, and forms a walking passage of the outer tunnel, wherein the outer tunnel walking deck is provided at a height between the floor of the inner tunnel and the inner tunnel walking deck. an inner tunnel walking deck which is provided above a floor of the inner tunnel with a space therebetween, and forms a walking passage of the inner tunnel; and an outer tunnel walking deck which is provided above a floor of the outer tunnel with a space therebetween, and forms a walking passage of the outer tunnel, wherein the outer tunnel walking deck is provided at a height between the floor of the inner tunnel and the inner tunnel walking deck.