mhurhangee/ep-ind-claims huggingface dataset:
A coupling means (8; 8'; 8", 14) for connecting a suction channel of an electrosurgical instrument to a vacuum source via a suction tubing and optionally for guiding an electrical cable that supplies electrical energy from an electrosurgical generator to the electrosurgical instrument, the electrosurgical instrument comprises a hollow elongated main body having a first end for securing a first means for application of the electrical energy to a surgical site and an opposite second end, which hollow elongated main body has a switch means to be operated by means of an associated actuator to control application of the electrical energy to the surgical site, wherein the coupling means (8; 8'; 8"; 14) comprises at least a first coupling part (8; 8'; 8") for inserting between the second end of the hollow elongated main body and the suction tubing, which first coupling part (8; 8'; 8") is configured to attach the suction tubing in tandem with said hollow elongated main body and optionally to accommodate the electrical cable exiting the hollow elongated main body along the longitudinal axis of said first coupling part (8; 8'; 8"), and the coupling means (8; 8'; 8"; 14) further comprises a second coupling part, which second coupling part has a suction tubing end part for securing to the suction tubing and a second coupling end part for attaching the suction tubing to the vacuum source, characterized in that the second coupling end part comprises an inner tube and an outer tube of larger internal diameter than the inner tube, wherein the outer tube of the second coupling part has at least one longitudinal slot.
A polyethylene composition comprising: 10 to 70 wt% of a first ethylene copolymer having a melt index I 2, of from 0.1 to 10 g/10min; a molecular weight distribution M w /M n, of less than 2.5; and a density of from 0.930 to 0.960 g/cm 3; and 90 to 30 wt% of a second ethylene copolymer having a melt index I 2, of from 50 to 10,000 g/10min; a molecular weight distribution M w /M n, of less than 2.5; and a density higher than the density of the first ethylene copolymer, but less than 0.966 g/cm 3; wherein the density of the second ethylene copolymer is less than 0.037 g/cm 3 higher than the density of the first ethylene copolymer; the ratio (SCB1/SCB2) of the number of short chain branches per thousand carbon atoms in the first ethylene copolymer to the number of short chain branches per thousand carbon atoms in the second ethylene copolymer is greater than 1.0; and wherein the polyethylene composition has a molecular weight distribution M w /M n, of from 2 to 7; a density of at least 0.950 g/cm 3; a high load melt index I 21, of from 150 to 400 g/10min; a Z-average molecular weight Mz, of less than 300,000; a melt flow ratio I 21 /I 2, of from 22 to 50; a stress exponent of less than 1.40; and an ESCR Condition B (100% IGEPAL) of at least 3.5 hrs. 10 to 70 wt% of a first ethylene copolymer having a melt index I 2, of from 0.1 to 10 g/10min; a molecular weight distribution M w /M n, of less than 2.5; and a density of from 0.930 to 0.960 g/cm 3; and 90 to 30 wt% of a second ethylene copolymer having a melt index I 2, of from 50 to 10,000 g/10min; a molecular weight distribution M w /M n, of less than 2.5; and a density higher than the density of the first ethylene copolymer, but less than 0.966 g/cm 3; wherein the density of the second ethylene copolymer is less than 0.037 g/cm 3 higher than the density of the first ethylene copolymer; the ratio (SCB1/SCB2) of the number of short chain branches per thousand carbon atoms in the first ethylene copolymer to the number of short chain branches per thousand carbon atoms in the second ethylene copolymer is greater than 1.0; and wherein the polyethylene composition has a molecular weight distribution M w /M n, of from 2 to 7; a density of at least 0.950 g/cm 3; a high load melt index I 21, of from 150 to 400 g/10min; a Z-average molecular weight Mz, of less than 300,000; a melt flow ratio I 21 /I 2, of from 22 to 50; a stress exponent of less than 1.40; and an ESCR Condition B (100% IGEPAL) of at least 3.5 hrs.
An electronic device comprising: a display; first user input means, for enabling access to a plurality of functions; second user input means comprising a detector for detecting gesture inputs; and a controller operable, in response to an input, to change a mode of operation of the device from a first, active mode of operation, in which the controller is operable to enable user access to the plurality of functions, to a second, restricted mode of operation in which the controller is operable to disable user access to the plurality of functions, and operable, in response to a gesture input via the second user input means wherein the gesture input is a tap applied to any part of the device, to change the mode of operation of the device from the second, restricted mode of operation to a third, restricted mode of operation in which the controller is operable to disable user access to the plurality of functions and is operable to present information not presentable in the second restricted mode of operation wherein when the device is in the third mode of operation the first user input means is unresponsive to user actuation to provide access to the plurality of functions, wherein viewing information in the third, restricted mode of operation does not change a status of the viewed information, and when the device is in the third, restricted mode of operation the controller is not operable to edit, delete or forward the displayed information, in response to a user input, wherein the information presented to the user in the third restricted mode of operation is stored in a menu and the electronic device is configured for user input to navigate through the menu by tapping the top of the device to scroll up, tapping the bottom of the device to scroll down, and tapping any other part of the device to select an option of the menu, and wherein when the device is in the second, restricted mode of operation the electronic device is configured to enable user access to emergency communications functions and the electronic device is configured to display: an indication of the power remaining in the battery; an indication of the strength of the cellular network signal; an indicator of the number of missed calls the device has received; and an indicator of the number of received but unread messages the device has received. a display; first user input means, for enabling access to a plurality of functions; second user input means comprising a detector for detecting gesture inputs; and a controller operable, in response to an input, to change a mode of operation of the device from a first, active mode of operation, in which the controller is operable to enable user access to the plurality of functions, to a second, restricted mode of operation in which the controller is operable to disable user access to the plurality of functions, and an indication of the power remaining in the battery; an indication of the strength of the cellular network signal; an indicator of the number of missed calls the device has received; and an indicator of the number of received but unread messages the device has received.
A composition comprising Bifidobacterium lactis for use in suppressing intestinal inflammation, wherein the Bifidobacterium lactis has the deposit number CGMCC 15650.
A top-mountable sleeve for a transport container which may be disposed between a container bottom and a cover of said transport container and which consists of several side walls (14, 15, 16, 17) that are interconnected and enclose a container interior and of at least one circumferential tensioning member that is applied at least sectionwise on an outer surface of each side wall (14, 15, 16, 17), characterised in that adjoining side walls (14, 15, 16, 17) are connected with one another in their respective corner regions by means of a joint thus forming respective outside corners, and in that the circumferential tensioning member extends from one side wall (14, 15, 16, 17) to its respective adjoining side wall (14, 15, 16, 17), passing through the container interior within said outside corners.
A method comprising: providing a user interface for display on a mobile device, the user interface comprising a map of a venue, the venue comprising a space accessible by a pedestrian and one or more constraints of movement of the pedestrian in the space; receiving from the pedestrian an input placing a marker (204, 208, 210) at a location on the map, wherein the location indicates a pedestrian-estimated location of the mobile device at the venue; recording, by the mobile device, a first reading of a sensor of the mobile device, recording, by the mobile device, a second reading of the sensor, the first reading recorded in association with a first orientation of at least one of the pedestrian and the mobile device, the second reading recorded in association with a second orientation of at least one of the pedestrian and the mobile device, the first reading and the second reading of the sensor each measuring one or more signals received by the sensor at the location; and determining a signal fingerprint of the location based on the first reading and the second reading, including controlling a signal attenuation effect caused by a body of the pedestrian on the signal fingerprint based on a difference between the first reading and the second reading and a difference between the first orientation and the second orientation. providing a user interface for display on a mobile device, the user interface comprising a map of a venue, the venue comprising a space accessible by a pedestrian and one or more constraints of movement of the pedestrian in the space; receiving from the pedestrian an input placing a marker (204, 208, 210) at a location on the map, wherein the location indicates a pedestrian-estimated location of the mobile device at the venue; recording, by the mobile device, a first reading of a sensor of the mobile device, recording, by the mobile device, a second reading of the sensor, the first reading recorded in association with a first orientation of at least one of the pedestrian and the mobile device, the second reading recorded in association with a second orientation of at least one of the pedestrian and the mobile device, the first reading and the second reading of the sensor each measuring one or more signals received by the sensor at the location; and determining a signal fingerprint of the location based on the first reading and the second reading, including controlling a signal attenuation effect caused by a body of the pedestrian on the signal fingerprint based on a difference between the first reading and the second reading and a difference between the first orientation and the second orientation.
A three-dimensional scanner for obtaining shape information of an object body, the three-dimensional scanner comprising: a light source unit; a detection unit for detecting light from the light source unit, the light being reflected on the object body; a reference unit for being irradiated with a part of the light from the light source unit; a varifocal unit capable of changing a focal position, the varifocal unit being a unit through which both of light from the light source unit to the detection unit via the object body and light from the light source unit to the detection unit via the reference unit travel at least once; a light path length adjustment unit for adjusting a length of a light path from the object body to the detection unit and a length of a light path from the reference unit to the detection unit; a determination unit for determining a condition of the varifocal unit based on light that has been reflected on the reference unit and detected by a part of the detection unit; and a calculation unit for calculating shape information of the object body from light detected by the detection unit, using information of the condition of the varifocal unit determined by the determination unit. a light source unit; a detection unit for detecting light from the light source unit, the light being reflected on the object body; a reference unit for being irradiated with a part of the light from the light source unit; a varifocal unit capable of changing a focal position, the varifocal unit being a unit through which both of light from the light source unit to the detection unit via the object body and light from the light source unit to the detection unit via the reference unit travel at least once; a light path length adjustment unit for adjusting a length of a light path from the object body to the detection unit and a length of a light path from the reference unit to the detection unit; a determination unit for determining a condition of the varifocal unit based on light that has been reflected on the reference unit and detected by a part of the detection unit; and a calculation unit for calculating shape information of the object body from light detected by the detection unit, using information of the condition of the varifocal unit determined by the determination unit.
A method for washing a recording head, comprising: an image forming step of ejecting an inkjet ink containing at least water, a coloring material, a binder resin and a water soluble organic solvent represented by general formula from a recording head to form an image on a recording medium; and a washing step of washing the recording head, after the image forming step, using an ink absorbing member that absorbs the inkjet ink and a wiping member that wipes a nozzle surface of the recording head using a wipe unit wherein the ink absorbing member holds a cleaning liquid containing an organic solvent: wherein R 1 represents a linear or branched alkyl group having 1 to 6 carbon atoms, R 2 and R 3 each represent a hydrogen atom or a linear or branched alkyl group having 1 to 4 carbon atoms, and R 2 and R 3 may be the same or different. an image forming step of ejecting an inkjet ink containing at least water, a coloring material, a binder resin and a water soluble organic solvent represented by general formula from a recording head to form an image on a recording medium; and a washing step of washing the recording head, after the image forming step, using an ink absorbing member that absorbs the inkjet ink and a wiping member that wipes a nozzle surface of the recording head using a wipe unit wherein the ink absorbing member holds a cleaning liquid containing an organic solvent:
A physical/biochemical sensor having a multisized piezoelectric microcantilever resonator array, wherein a plurality of piezoelectric microcantilever resonators has different sizes, wherein each of the multisized piezoelectric microcantilever resonators includes: a silicon nitride layer cantilever formed on a silicon substrate; a silicon oxide layer formed on the silicon nitride layer cantilever; a lower electrode formed in a preset size on the silicon oxide layer; a piezoelectric driving thin layer for piezoelectric driving, formed on the lower electrode; an insulating layer for an inter-electrode insulation, formed on the lower electrode and on a part of the piezoelectric driving thin layer; an upper electrode formed on the insulating layer and on the piezoelectric driving thin layer; and an electrode line for applying an electric field to drive a device, connected to the upper electrode and the lower electrode, and wherein the cantilevers of the multisized piezoelectrical microcantilever resonator array having gradually reduced lengths, wherein the widths of the silicon nitride layer cantilevers are reduced at the same ratio as the reduction ratio of their lengths, and the thicknesses of the silicon nitride layer cantilevers are maintained constant, and wherein the longest piezoelectric microcantilever resonator has a length at least three times as long as that of the shortest piezoelectric microcantilever resonator, so as to quantitatively and discriminately analyze a surface stress change as well as a mass change on a sensor surface induced by an adsorption of a sensing-target material during a sensing process. a silicon nitride layer cantilever formed on a silicon substrate; a silicon oxide layer formed on the silicon nitride layer cantilever; a lower electrode formed in a preset size on the silicon oxide layer; a piezoelectric driving thin layer for piezoelectric driving, formed on the lower electrode; an insulating layer for an inter-electrode insulation, formed on the lower electrode and on a part of the piezoelectric driving thin layer; an upper electrode formed on the insulating layer and on the piezoelectric driving thin layer; and an electrode line for applying an electric field to drive a device, connected to the upper electrode and the lower electrode, and wherein the cantilevers of the multisized piezoelectrical microcantilever resonator array having gradually reduced lengths, wherein the widths of the silicon nitride layer cantilevers are reduced at the same ratio as the reduction ratio of their lengths, and the thicknesses of the silicon nitride layer cantilevers are maintained constant, and wherein the longest piezoelectric microcantilever resonator has a length at least three times as long as that of the shortest piezoelectric microcantilever resonator, so as to quantitatively and discriminately analyze a surface stress change as well as a mass change on a sensor surface induced by an adsorption of a sensing-target material during a sensing process.
A composition, characterised in that it comprises, relative to the total weight of the composition - from 20% to 35% by weight of activated carbon, - from 4% to 7% by weight of sodium sulphate, - from 15% to 25% by weight of glycerine, - from 0.15% to 0.40% by weight of xanthan gum, - from 30% to 60% by weight of water. - from 20% to 35% by weight of activated carbon, - from 4% to 7% by weight of sodium sulphate, - from 15% to 25% by weight of glycerine, - from 0.15% to 0.40% by weight of xanthan gum, - from 30% to 60% by weight of water.
A monitoring server for remotely monitoring an inmate communication session, the monitoring server comprising: a network interface device configured to communicate with a remote monitoring station; and at least one processor configured to: transmit the inmate communication session to the remote monitoring station; monitor data received from the remote monitoring station; monitor a reviewer of the inmate communication session located at the remote monitoring station based on the data received from the remote monitoring station including input data from the reviewer; transmit, to the remote monitoring station, a verification command for the remote monitoring station to perform a monitor verification process after a predetermined amount of time that no input data has been monitored; and receive, from the remote monitoring station, a response to the verification command. a network interface device configured to communicate with a remote monitoring station; and at least one processor configured to: transmit the inmate communication session to the remote monitoring station; monitor data received from the remote monitoring station; monitor a reviewer of the inmate communication session located at the remote monitoring station based on the data received from the remote monitoring station including input data from the reviewer; transmit, to the remote monitoring station, a verification command for the remote monitoring station to perform a monitor verification process after a predetermined amount of time that no input data has been monitored; and receive, from the remote monitoring station, a response to the verification command. transmit the inmate communication session to the remote monitoring station; monitor data received from the remote monitoring station; monitor a reviewer of the inmate communication session located at the remote monitoring station based on the data received from the remote monitoring station including input data from the reviewer; transmit, to the remote monitoring station, a verification command for the remote monitoring station to perform a monitor verification process after a predetermined amount of time that no input data has been monitored; and receive, from the remote monitoring station, a response to the verification command.
A DC-DC converter comprising: a switch element that is provided between one end of a DC power source and one end of a load and turns ON and OFF current input from the DC power source; an inductance element that is provided between one end of the switch element on a load-side end and said one end of the load and includes a doughnut-shaped magnetic core and a conductive wire wound around the doughnut-shaped magnetic core; a commutation switch provided between a node between the switch element and the inductance element and a ground potential; and a capacitance element provided between a node, between the inductance element and the load, and the ground potential, characterized in that the doughnut-shaped magnetic core has outer and inner circumferences having different centers so that an inductance value of the inductance element decreases gradually by a leakage of magnetic flux of the doughnut-shaped magnetic core from a portion of the doughnut-shaped magnetic core in which the outer and inner circumferences are closer to each other than in other portions of the doughnut-shaped magnetic core as a current of conductive wire increases. a switch element that is provided between one end of a DC power source and one end of a load and turns ON and OFF current input from the DC power source; an inductance element that is provided between one end of the switch element on a load-side end and said one end of the load and includes a doughnut-shaped magnetic core and a conductive wire wound around the doughnut-shaped magnetic core; a commutation switch provided between a node between the switch element and the inductance element and a ground potential; and a capacitance element provided between a node, between the inductance element and the load, and the ground potential,
An electronic device comprising: a case; an antenna supported by the case; a display module disposed within the case; a conductive chassis disposed within the case, the conductive chassis structurally supporting the display module; an electronics module disposed within the case, wherein the conductive chassis is positioned between the antenna and the electronics module to shield the antenna from electromagnetic noise generated by the electronics module; characterized by an interconnect that is configured to electrically connect the conductive chassis and a conductive component of the case, the interconnect extending around the electronics module and being disposed along a perimeter of the conductive chassis to surround the electronics module and further shield the antenna from the electromagnetic noise generated by the electronics module. a case; an antenna supported by the case; a display module disposed within the case; a conductive chassis disposed within the case, the conductive chassis structurally supporting the display module; an electronics module disposed within the case, wherein the conductive chassis is positioned between the antenna and the electronics module to shield the antenna from electromagnetic noise generated by the electronics module; characterized by an interconnect that is configured to electrically connect the conductive chassis and a conductive component of the case, the interconnect extending around the electronics module and being disposed along a perimeter of the conductive chassis to surround the electronics module and further shield the antenna from the electromagnetic noise generated by the electronics module.
Prealloyed metal powder, especially for the production of cutting tools by sintering, characterised in that its composition, in percent by weight, is: * Fe = from 48 to 52% * Co = from 14 to 19% * Cu = from 32 to 37% * O ≤ 1.2%, the remainder being impurities resulting from its production. * Fe = from 48 to 52% * Co = from 14 to 19% * Cu = from 32 to 37% * O ≤ 1.2%,