mhurhangee/ep-ind-claims huggingface dataset:
An embedded device on which a virus scan program for detecting computer virus operates, the embedded device comprising: a display control unit configured to display a first display component for receiving an instruction to pause the virus scan when starting a virus scan; an operation reception unit configured to receive the instruction to pause the virus scan via the first display component; and an application control unit configured to pause the virus scan when the instruction to pause the virus scan is received; and the application control unit is further configured to: execute the virus scan program while reducing resources allocated to the virus scan program; determine whether or not there is application software being executed in addition to the virus scan program; and: when there is no application software being executed, cancel the reduction in resources allocated to the virus scan program; and when there is application software being executed, not cancel the reduction in resources allocated to the virus scan program. a display control unit configured to display a first display component for receiving an instruction to pause the virus scan when starting a virus scan; an operation reception unit configured to receive the instruction to pause the virus scan via the first display component; and an application control unit configured to pause the virus scan when the instruction to pause the virus scan is received; and the application control unit is further configured to: execute the virus scan program while reducing resources allocated to the virus scan program; determine whether or not there is application software being executed in addition to the virus scan program; and: when there is no application software being executed, cancel the reduction in resources allocated to the virus scan program; and when there is application software being executed, not cancel the reduction in resources allocated to the virus scan program. when there is no application software being executed, cancel the reduction in resources allocated to the virus scan program; and when there is application software being executed, not cancel the reduction in resources allocated to the virus scan program.
Oil separator of a P[ositive]C[rankcase]V[entilation] system, featuring a ring filter element which is designed to separate oil from fluid, a sealing element detachably or non-detachably attached to the ring filter element and a filter housing (210, 220) with two parts designed to receive the ring filter element, wherein the interior area of the filter housing (210, 220) is divided by the the ring filter element into a raw chamber or a raw side and into a clean chamber or a clean side, wherein the sealing element is made in one piece and features at least one radially sealing area, which is designed to act in the direction of the radius of the ring filter element and at least one axially sealing area, which is designed to act in the direction of the longitudinal axis of the ring filter element, characterized in that the radially sealing area is disposed inside the filter housing and designed to seal the raw side against the clean side and the axially sealing area is disposed between two parts of the filter housing and designed to seal the interior area of the filter housing (210, 220) against the environment; wherein - the radially sealing area is disposed with axial and radial distance to the axially sealing area; wherein - the radially sealing area and the axially sealing area are offset in relation to each other in the direction of the longitudinal axis of the ring filter element, wherein the radially sealing area is disposed above the axially sealing area following the flow direction of the fluid to be filtered. - the radially sealing area is disposed with axial and radial distance to the axially sealing area; wherein - the radially sealing area and the axially sealing area are offset in relation to each other in the direction of the longitudinal axis of the ring filter element, wherein the radially sealing area is disposed above the axially sealing area following the flow direction of the fluid to be filtered.
System for detecting and monitoring the presence of antibodies associated to different stages of Lyme disease, present in biological samples, comprising - an antigen bouquet - a biochip - a biochip optical reader; and characterized by the fact that the antibodies present in the biological samples are detected specifically for acute, chronic, autoimmunity and coinfection related to Lyme disease, the antigen bouquet comprising sixteen antigens, in particular, IgG and IgM, cell lysates of E. coli, OspC, OspA, DbpA and Arp, OspE1/2, LFA1, Arp, peptides of Babesia microti and Ehrlichia, Borrelia burgdorferi B31 spirochete, Borrelia burgdorferi B31 cysts, Borrelia garinii and Borrelia azfelii; and in that said biochip comprises a first reservoir suitable for containing biological samples, a second reservoir for the washing buffer, a third reservoir for quantum dots, a working area and field of view comprising valves, reaction chambers and analysis chambers wherein the reaction and analysis chambers bear antigen coatings, with at least a first pump, a second pump and nine microfluidic channels (7, 8, 9, 10, 11, 12, 13, 14 and 15). - an antigen bouquet - a biochip - a biochip optical reader; and
A flashlight with a flashlight casing and a push switch, latching switch or rotary switch contained in an end cap detachable connected with the flashlight casing and having a switch housing in which first and second contacts (4, 5) engage, characterized in that the first contact is a leaf spring in electrically conductive contact directly against the electrically conductive flashlight casing, wherein the second contact is a bent leaf spring outside the switch housing and is directly connected to a power supply.
A system for facilitating smoking of tobacco from a water pipe, comprising: a platform (520, 1520, 1520a, 1520c) for resting on a bowl (8, 350, 351, 502, 502g, 502j, 502k, 730, 760, 1330) operable to contain tobacco or other smokable organic substance, comprising: a tray (1522, 1522a, 1522c, 1522e, 1522g, 1522i, 1522k) with or without recesses to support charcoal or other heating elements, characterized in that the platform (520, 1520, 1520a, 1520c) further comprises: at least one raised surface (1523, 1523a, 1523c, 1523g, 1523i, 1523k) coupled with the tray (1522a, 1522c, 1522e, 1522g, 1522i) providing an elevation above the tray (1522a, 1522c, 1522e, 1522g, 1522i) for the charcoal or the other heating elements to promote airflow between them, wherein a first plurality of the raised surfaces (1523, 1523a, 1523c, 1523g, 1523i, 1523k) is oriented in a first ring, wherein the first plurality of raised surfaces (1523, 1523a, 1523c, 1523g, 1523i, 1523k) are separated by spaces that allow airflow between them, and/or at least one ridge coupled with a bottom surface of the platform (520, 1520, 1520a, 1520c) to provide airflow management. a tray (1522, 1522a, 1522c, 1522e, 1522g, 1522i, 1522k) with or without recesses to support charcoal or other heating elements, characterized in that the platform (520, 1520, 1520a, 1520c) further comprises: at least one raised surface (1523, 1523a, 1523c, 1523g, 1523i, 1523k) coupled with the tray (1522a, 1522c, 1522e, 1522g, 1522i) providing an elevation above the tray (1522a, 1522c, 1522e, 1522g, 1522i) for the charcoal or the other heating elements to promote airflow between them, wherein a first plurality of the raised surfaces (1523, 1523a, 1523c, 1523g, 1523i, 1523k) is oriented in a first ring, wherein the first plurality of raised surfaces (1523, 1523a, 1523c, 1523g, 1523i, 1523k) are separated by spaces that allow airflow between them, and/or at least one ridge coupled with a bottom surface of the platform (520, 1520, 1520a, 1520c) to provide airflow management. at least one raised surface (1523, 1523a, 1523c, 1523g, 1523i, 1523k) coupled with the tray (1522a, 1522c, 1522e, 1522g, 1522i) providing an elevation above the tray (1522a, 1522c, 1522e, 1522g, 1522i) for the charcoal or the other heating elements to promote airflow between them, wherein a first plurality of the raised surfaces (1523, 1523a, 1523c, 1523g, 1523i, 1523k) is oriented in a first ring, wherein the first plurality of raised surfaces (1523, 1523a, 1523c, 1523g, 1523i, 1523k) are separated by spaces that allow airflow between them, and/or at least one ridge coupled with a bottom surface of the platform (520, 1520, 1520a, 1520c) to provide airflow management.
A coated carbon nanotube electric wire comprising: a carbon nanotube wire including one or a plurality of carbon nanotube aggregates formed by a plurality of carbon nanotubes; and an insulating coating layer coating the carbon nanotube wire, wherein: the insulating coating layer has an identification mark, the carbon nanotube wire is a twisted wire, the identification mark indicates a twisting direction of the twisted wire, the insulating coating layer is present on a peripheral surface of the carbon nanotube wire and is an outermost layer, the insulating coating layer is transparent, and the identification mark includes a fluorescent substance. the insulating coating layer has an identification mark, the carbon nanotube wire is a twisted wire, the identification mark indicates a twisting direction of the twisted wire, the insulating coating layer is present on a peripheral surface of the carbon nanotube wire and is an outermost layer, the insulating coating layer is transparent, and the identification mark includes a fluorescent substance.
A method for mapping a physical downlink control format indicator channel to physical resources, the method comprises: mapping data y,..., y in a physical downlink control format indicator channel to physical resources according to the following method by combining 4 continuous subcarriers in order except pilots into a resource element group: mapping y,...y to resource elements of a resource element group k ⁢ 1 = k 0 ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 2 = k 0 + ⌊ N RB DL / 2 ⌋ ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 3 = k 0 + ⌊ N RB DL ⌋ ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 4 = k 0 + ⌊ 3 ⁢ N RB DL / 2 ⌋ ⁢ mod 2 × N RB DL; and wherein, k 0 = N ID cell ⁢ mod X * N RB DL, and the N RB DL standing for the quantity of resource blocks in the system bandwidth, and the N ID cell being the proprietary ID of each cell, and X being a positive integer. mapping data y,..., y in a physical downlink control format indicator channel to physical resources according to the following method by combining 4 continuous subcarriers in order except pilots into a resource element group: mapping y,...y to resource elements of a resource element group k ⁢ 1 = k 0 ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 2 = k 0 + ⌊ N RB DL / 2 ⌋ ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 3 = k 0 + ⌊ N RB DL ⌋ ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 4 = k 0 + ⌊ 3 ⁢ N RB DL / 2 ⌋ ⁢ mod 2 × N RB DL; and wherein, k 0 = N ID cell ⁢ mod X * N RB DL, and the N RB DL standing for the quantity of resource blocks in the system bandwidth, and the N ID cell being the proprietary ID of each cell, and X being a positive integer. mapping y,...y to resource elements of a resource element group k ⁢ 1 = k 0 ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 2 = k 0 + ⌊ N RB DL / 2 ⌋ ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 3 = k 0 + ⌊ N RB DL ⌋ ⁢ mod 2 × N RB DL; mapping y,...y to resource elements of a resource element group k ⁢ 4 = k 0 + ⌊ 3 ⁢ N RB DL / 2 ⌋ ⁢ mod 2 × N RB DL; and wherein, k 0 = N ID cell ⁢ mod X * N RB DL, and the N RB DL standing for the quantity of resource blocks in the system bandwidth, and the N ID cell being the proprietary ID of each cell, and X being a positive integer.
A method for performing threat detection in a network comprising: monitoring communications traffic in the network; constructing a baseline connectivity graph model that represents communities of hosts (1-n) within the network; tracking ongoing communications and comparing against data corresponding to the communities to identify abnormal behavior, wherein the abnormal behavior corresponds to communications by a host with other hosts beyond its determined community by greater than a threshold amount, wherein a determination of whether the communications by the host with other hosts beyond its determined community are greater than the threshold amount is performed by identifying a number of new hosts communicating with the host and calculating a ratio of the new hosts communicating with the host to a total number of the hosts communicating with the host, and by comparing the ratio to a threshold ratio; and reporting a threat if abnormal behavior is identified. monitoring communications traffic in the network; constructing a baseline connectivity graph model that represents communities of hosts (1-n) within the network; tracking ongoing communications and comparing against data corresponding to the communities to identify abnormal behavior, wherein the abnormal behavior corresponds to communications by a host with other hosts beyond its determined community by greater than a threshold amount, wherein a determination of whether the communications by the host with other hosts beyond its determined community are greater than the threshold amount is performed by identifying a number of new hosts communicating with the host and calculating a ratio of the new hosts communicating with the host to a total number of the hosts communicating with the host, and by comparing the ratio to a threshold ratio; and reporting a threat if abnormal behavior is identified.
A method for cell search in a cluster based communications network, the method being performed by a wireless device camping on or served by a cluster head device associated with a cluster head carrier frequency (f CH), characterized by acquiring frequency measurement configuration information from the cluster head device at a first reference frequency (f 1), the first reference frequency (f 1) using a system bandwidth; performing a first cell search on a second reference frequency (f 2), based on the frequency measurement configuration information; and in a case no network node is found during the first cell search on the second reference frequency (f 2): performing (S108a) a second cell search on a third reference frequency (f 3), wherein the second reference frequency (f 2) and the third reference frequency (f 3) differ less than the system bandwidth.
A carrier plate assembly, the carrier plate assembly being arranged to be secured over a structure, the structure being arranged to define at least a first structure hole, the structure including at least a first component, the carrier plate assembly comprising: a carrier plate, the carrier plate having a first plate mounting hole and a first opening defined therein, the first plate mounting hole being arranged to be aligned with the first structure hole such that a first axis is defined through the first plate mounting hole and the first structure hole, the first opening being arranged to be positioned over the first component wherein heatsink mounting holes are defined in the carrier plate; and a first heatsink, the first heatsink being arranged to be positioned such that a first portion of the first heatsink protrudes through the opening and a second portion of the first heatsink is supported on the carrier plate, wherein the second portion of the first heatsink is configured to overlap the heat sink mounting holes, the heatsink mounting holes being arranged to enable the first heatsink to be mounted to the carrier plate, and characterized in that the first structure hole is used to mount the structure to another circuit board or a carrier tray. a carrier plate, the carrier plate having a first plate mounting hole and a first opening defined therein, the first plate mounting hole being arranged to be aligned with the first structure hole such that a first axis is defined through the first plate mounting hole and the first structure hole, the first opening being arranged to be positioned over the first component wherein heatsink mounting holes are defined in the carrier plate; and a first heatsink, the first heatsink being arranged to be positioned such that a first portion of the first heatsink protrudes through the opening and a second portion of the first heatsink is supported on the carrier plate, wherein the second portion of the first heatsink is configured to overlap the heat sink mounting holes, the heatsink mounting holes being arranged to enable the first heatsink to be mounted to the carrier plate, and characterized in that the first structure hole is used to mount the structure to another circuit board or a carrier tray.
An installation device for installing solar collectors on an underlying surface, in particular on a free surface, which has at least one or preferably two or more stand device(s), which each have a base post and a pivot carrier mounted pivotably thereon, which is pivotable into a location angled to the base post, for which purpose a pivot bearing is implemented between the base post and the pivot carrier, characterized in that the pivot bearing has a pivot axis, which is implemented by an embossing procedure, in the pivot carrier or alternatively in the base post and a corresponding axial bearing in the base post or alternatively in the pivot carrier.
A production method for an expansion balloon for use in a balloon catheter, comprising the steps of: obtaining a balloon tube that has a cross section orthogonal to an axial direction with the shape of a circle on the outside (13a to 13d) and the shape of a polygon having a circumcircle (15a to 15d) on the inside (14a to 14d); and placing the balloon tube in a mold for biaxially-stretched blow molding to obtain the balloon, characterized in that the mold has a cavity corresponding to the outer shape of the balloon that has a straight pipe part with a columnar outer shape. obtaining a balloon tube that has a cross section orthogonal to an axial direction with the shape of a circle on the outside (13a to 13d) and the shape of a polygon having a circumcircle (15a to 15d) on the inside (14a to 14d); and placing the balloon tube in a mold for biaxially-stretched blow molding to obtain the balloon, characterized in that the mold has a cavity corresponding to the outer shape of the balloon that has a straight pipe part with a columnar outer shape.
A turbine assembly (10, 10a-d) comprising a basically hollow aerofoil, having at least a cavity with an inner wall and having at least an aperture providing access to the cavity, and at least a first impingement device (20, 20a) arrangeable within the cavity, wherein the at least first impingement device (20, 20a-d) is self-locking, resilient and preloadable and has two locking elements (22, 22') to lock the at least first impingement device (20, 20a-d) in place in the cavity via a force fit between each one of the two locking elements (22, 22') and the inner wall of the cavity wherein - the at least first impingement device (20, 20a-d) has at least two side walls (30, 30') with - the two locking elements (22, 22') of the at least first impingement device (20, 20a-d) are embodied as protrusions (26, 26') each processed by a bending of an end region of the side walls (30, 30') basically perpendicular with an angle of approximately 90° to a surface of each side wall (30, 30'), wherein the surface faces the inner wall and is arranged basically in parallel to the inner wall, therefore each protrusion (26, 26') extends in an assembled state of the at least first impingement device (20, 20a-d) in the cavity basically perpendicular with an angle of approximately 90° to the surface of each a side wall (30, 30') of the at least first impingement device (20, 20a-d) in a direction towards the inner wall. - the at least first impingement device (20, 20a-d) has at least two side walls (30, 30') with - the two locking elements (22, 22') of the at least first impingement device (20, 20a-d) are embodied as protrusions (26, 26') each processed by a bending of an end region of the side walls (30, 30') basically perpendicular with an angle of approximately 90° to a surface of each side wall (30, 30'), wherein the surface faces the inner wall and is arranged basically in parallel to the inner wall, therefore each protrusion (26, 26') extends in an assembled state of the at least first impingement device (20, 20a-d) in the cavity basically perpendicular with an angle of approximately 90° to the surface of each a side wall (30, 30') of the at least first impingement device (20, 20a-d) in a direction towards the inner wall.
Fuel cell system, especially for a motor vehicle, - with a fuel cell for generating electric current from an oxidiser gas and a fuel gas that has an anode inlet, an anode outlet, a cathode inlet, a cathode outlet and at least one electrical connection, - with a reformer for the production of fuel gas from oxidiser and fuel that has an oxidiser inlet, a fuel inlet, a recirculation inlet and a fuel gas outlet, - with a first oxidiser line to supply the fuel cell with oxidiser gas, which is connected to the cathode inlet, - with a second oxidiser line to supply the reformer with oxidiser gas, which is connected to the oxidiser inlet, - with a fuel cell exhaust line, which is connected via a cathode exhaust line to the cathode outlet and via an anode exhaust line to the anode outlet, - with a recirculation line, the outlet end of which is connected to the recirculation inlet, - with a recirculation heat exchanger, of which one side is inserted in the recirculation line, - with a residual gas burner, the inlet end of which is connected to the anode exhaust line and to the cathode exhaust line and the outlet end of which is connected to the fuel cell exhaust line, characterised in that, - the other side of the recirculation heat exchanger is inserted in the second oxidiser line or in a common oxidiser supply line that supplies the first oxidiser line and the second oxidiser line with oxidiser gas, - the inlet end of the recirculation line is connected either upstream of the residual gas burner to the anode exhaust line or downstream of the residual gas burner to the fuel cell exhaust line. - with a fuel cell for generating electric current from an oxidiser gas and a fuel gas that has an anode inlet, an anode outlet, a cathode inlet, a cathode outlet and at least one electrical connection, - with a reformer for the production of fuel gas from oxidiser and fuel that has an oxidiser inlet, a fuel inlet, a recirculation inlet and a fuel gas outlet, - with a first oxidiser line to supply the fuel cell with oxidiser gas, which is connected to the cathode inlet, - with a second oxidiser line to supply the reformer with oxidiser gas, which is connected to the oxidiser inlet, - with a fuel cell exhaust line, which is connected via a cathode exhaust line to the cathode outlet and via an anode exhaust line to the anode outlet, - with a recirculation line, the outlet end of which is connected to the recirculation inlet, - with a recirculation heat exchanger, of which one side is inserted in the recirculation line, - with a residual gas burner, the inlet end of which is connected to the anode exhaust line and to the cathode exhaust line and the outlet end of which is connected to the fuel cell exhaust line, characterised in that, - the other side of the recirculation heat exchanger is inserted in the second oxidiser line or in a common oxidiser supply line that supplies the first oxidiser line and the second oxidiser line with oxidiser gas, - the inlet end of the recirculation line is connected either upstream of the residual gas burner to the anode exhaust line or downstream of the residual gas burner to the fuel cell exhaust line.