mhurhangee/ep-ind-claims huggingface dataset:
A method for plasma dicing a substrate, the method comprising: - providing a process chamber having a wall; - providing a plasma source adjacent to the wall of the process chamber; - providing a work piece support within the process chamber; - providing an electrostatic chuck within said work piece support, said electrostatic chuck having a plurality of gas inlet ports; - providing a lift mechanism within the process chamber; - loading a work piece onto said work piece support using said lift mechanism, said work piece having a support film, a frame and the substrate, said lift mechanism engaging the frame of said work piece outside an outer diameter of the substrate of said work piece and said plurality of gas inlet ports is positioned outside of said outer diameter of the substrate of said work piece; - electrostatically clamping said work piece to said work piece support using said electrostatic chuck; - generating a plasma using the plasma source; and etching the work piece using the generated plasma. - providing a process chamber having a wall; - providing a plasma source adjacent to the wall of the process chamber; - providing a work piece support within the process chamber; - providing an electrostatic chuck within said work piece support, said electrostatic chuck having a plurality of gas inlet ports; - providing a lift mechanism within the process chamber; - loading a work piece onto said work piece support using said lift mechanism, said work piece having a support film, a frame and the substrate, said lift mechanism engaging the frame of said work piece outside an outer diameter of the substrate of said work piece and said plurality of gas inlet ports is positioned outside of said outer diameter of the substrate of said work piece; - electrostatically clamping said work piece to said work piece support using said electrostatic chuck; - generating a plasma using the plasma source; and etching the work piece using the generated plasma.
Housing of electronic apparatus mountable on a wall of an electric panel or cabinet, the housing comprising two parts: (i) a front portion comprising a hollow, cuboid shell for containing electronic components, and (ii) a box-shaped, hollow main body comprising a shell for containing electronic components, which parts are separated and configured to be able to connect to one another being, when connected, on opposite sides of the panel or cabinet, wherein the front portion is configured as an interface for data output with a display and/or indicators, while inside the main body there is the electronics that manages the device, characterized in that the two parts each comprise a connecting portion (44, 22), wherein each connecting portion projects cantilevered from its own shell and can be inserted into an opening of the wall to reach and connect with the other portion. (i) a front portion comprising a hollow, cuboid shell for containing electronic components, and (ii) a box-shaped, hollow main body comprising a shell for containing electronic components,
A sound absorbing ostomy pouch, comprising: a first wall, a second wall, wherein the first wall and the second wall are sealed along their peripheral edges to define a cavity; a first nonwoven layer adhesively attached to the first wall characterized in that a sound absorbing adhesive (28, 30) is provided therebetween; and wherein the sound absorbing adhesive (28, 30) includes a vinyl-bond rich triblock copolymer. a first wall, a second wall, wherein the first wall and the second wall are sealed along their peripheral edges to define a cavity; a first nonwoven layer adhesively attached to the first wall characterized in that a sound absorbing adhesive (28, 30) is provided therebetween; and wherein the sound absorbing adhesive (28, 30) includes a vinyl-bond rich triblock copolymer.
A method comprising: providing, by a computing device (115, 800) executing an optimizer (122, 205, 850), a user interface, UI (150, 230), that presents a plurality of options to modify a video; receiving, via the UI, a user selection of a subset of options of the plurality of options; in response to the user selection of the subset of options, processing, by the computing device executing the optimizer, a video of the plurality of videos using a plurality of rules to determine one or more optimizations for the video, the one or more optimizations reflecting the subset of options by modifying properties of the video to be closer to predetermined properties that are correlated with improved viewership statistics; modifying the video to produce a modified version of the video that implements the one or more optimizations; causing the modified version of the video to be presented to viewers; and monitoring viewership or viewing time for the modified and original versions of the video, and if the viewership or viewing time stayed the same or went down after implementing the optimizations, adjusting one or more of the rules used to determine the one or more optimizations for the video. providing, by a computing device (115, 800) executing an optimizer (122, 205, 850), a user interface, UI (150, 230), that presents a plurality of options to modify a video; receiving, via the UI, a user selection of a subset of options of the plurality of options; in response to the user selection of the subset of options, processing, by the computing device executing the optimizer, a video of the plurality of videos using a plurality of rules to determine one or more optimizations for the video, the one or more optimizations reflecting the subset of options by modifying properties of the video to be closer to predetermined properties that are correlated with improved viewership statistics; modifying the video to produce a modified version of the video that implements the one or more optimizations; causing the modified version of the video to be presented to viewers; and monitoring viewership or viewing time for the modified and original versions of the video, and if the viewership or viewing time stayed the same or went down after implementing the optimizations, adjusting one or more of the rules used to determine the one or more optimizations for the video.
A compression binder for supporting a portion of a patient's body comprising: at least two stretchable bands (10, 11, 12) including upper and lower bands, each band having a length and having first and second ends and means (14, 15, 16) for adjustably connecting the first and second ends together to vary a tension applied to the patient's body, each band (10, 11, 12) further having a width defined by upper and lower edges extending between the first and second ends, each band (10, 11, 12) having an inner surface configured to be positioned next to the patient and an outer surface configured to be positioned away from the patient; and a plurality of vertical stitches connecting the upper (10, 11) and lower (11, 12) bands, the inner surface of the upper band (10, 11) overlapping the outer surface of the lower band (11, 12) to form an overlapping portion, characterized in that the overlapping portion has a width between the lower edge of the upper band (10, 11) and the upper edge of the lower band (11, 12) in the range of 0.635 cm (0.25 inch) to 5.08 cm (2 inches), and in that the vertical stitches are located entirely within the overlapped portion at positions spaced a first distance D1 above the lower edge of the upper band (10, 11) and a second distance D2 below the upper edge of the lower band (11, 12), the vertical stitches being spaced apart a distance in the range of 1.27 cm (0.5 inch) to 4.57 cm (1.8 inches). at least two stretchable bands (10, 11, 12) including upper and lower bands, each band having a length and having first and second ends and means (14, 15, 16) for adjustably connecting the first and second ends together to vary a tension applied to the patient's body, each band (10, 11, 12) further having a width defined by upper and lower edges extending between the first and second ends, each band (10, 11, 12) having an inner surface configured to be positioned next to the patient and an outer surface configured to be positioned away from the patient; and a plurality of vertical stitches connecting the upper (10, 11) and lower (11, 12) bands, the inner surface of the upper band (10, 11) overlapping the outer surface of the lower band (11, 12) to form an overlapping portion, characterized in that the overlapping portion has a width between the lower edge of the upper band (10, 11) and the upper edge of the lower band (11, 12) in the range of 0.635 cm (0.25 inch) to 5.08 cm (2 inches), and in that the vertical stitches are located entirely within the overlapped portion at positions spaced a first distance D1 above the lower edge of the upper band (10, 11) and a second distance D2 below the upper edge of the lower band (11, 12), the vertical stitches being spaced apart a distance in the range of 1.27 cm (0.5 inch) to 4.57 cm (1.8 inches).
Barrier adhesive comprising an adhesive base composed of - at least one reactive resin having at least one activatable group, - at least one elastomer, - optionally at least one tackifying resin, where the adhesive base has a water vapour permeation rate after the activation of the reactive resin of less than 100 g/m 2 d, preferably of less than 50 g/m 2 d, especially less than 15 g/m 2 d, determined according to the "Permeability to water vapour" test method as specified in the test methods section of the description, a transparent molecularly dispersed getter material and optionally a solvent, characterized in that the getter material is at least one silane having at least one alkoxy group and at least one activatable group, where the reactive resin and silane have chemically the same kind of activatable groups, the activatable group is at least one group selected from the group comprising cyclic ether groups, especially epoxides and oxetanes, acrylates and methacrylates, the adhesive is a pressure-sensitive adhesive and the elastomer is at least one vinylaromatic block copolymer. an adhesive base composed of - at least one reactive resin having at least one activatable group, - at least one elastomer, - optionally at least one tackifying resin, - at least one reactive resin having at least one activatable group, - at least one elastomer, - optionally at least one tackifying resin, where the adhesive base has a water vapour permeation rate after the activation of the reactive resin of less than 100 g/m 2 d, preferably of less than 50 g/m 2 d, especially less than 15 g/m 2 d, determined according to the "Permeability to water vapour" test method as specified in the test methods section of the description, a transparent molecularly dispersed getter material and optionally a solvent, characterized in that the getter material is at least one silane having at least one alkoxy group and at least one activatable group, where the reactive resin and silane have chemically the same kind of activatable groups, the activatable group is at least one group selected from the group comprising cyclic ether groups, especially epoxides and oxetanes, acrylates and methacrylates, the adhesive is a pressure-sensitive adhesive and the elastomer is at least one vinylaromatic block copolymer.
A hose gun comprising a gun body and a water outlet head for outputting water from the gun, the gun body having a user grip body portion and a second body portion which is at an angle to the user grip portion, wherein joint means are provided between the water outlet head and the gun body allowing the water outlet head to be moved relative to the gun body between a forward watering position and a sprinkler position in which the hose gun is positionable on a surface with the user grip body portion and second body portion acting as a base and the water outlet head directed upwardly wherein the water outlet head has a water outlet axis and when the outlet head is in the forward watering position, the water outlet axis is directed in or parallel to a plane which is occupied by the grip body portion and the second body portion, whilst when the water outlet head is in the sprinkler position, the water outlet axis is directed away from that plane.
A device, comprising at least a first connection, a second connection as well as a first outlet and a second outlet, characterized in that (a) the first connection is operatively connected aa) by means of a control line via a pilot connection to a first check valve as well as bb) via a return line to a second check valve and cc) by means of an actuation line to a third check valve; (b) the Y-outlet of the second check valve is operatively connected to the X-outlet of a fourth check valve as well as to the first outlet and the second outlet and simultaneously to the X-outlet of the third check valve; (c) the Y-outlet of the fourth check valve is operatively connected to the Y-outlet of the first check valve by means of a filling line; (d) the X-outlet of the first check valve is operatively connected to the second connection and the latter is operatively connected via an accumulator line to an accumulator; (e) the first connection is connected to a brake line and the first outlet and the second outlet are connectable to a brake cylinder. (a) the first connection is operatively connected aa) by means of a control line via a pilot connection to a first check valve as well as bb) via a return line to a second check valve and cc) by means of an actuation line to a third check valve; (b) the Y-outlet of the second check valve is operatively connected to the X-outlet of a fourth check valve as well as to the first outlet and the second outlet and simultaneously to the X-outlet of the third check valve; (c) the Y-outlet of the fourth check valve is operatively connected to the Y-outlet of the first check valve by means of a filling line; (d) the X-outlet of the first check valve is operatively connected to the second connection and the latter is operatively connected via an accumulator line to an accumulator; (e) the first connection is connected to a brake line and the first outlet and the second outlet are connectable to a brake cylinder.
A pooper scooper device for bagging faeces in a collection bag, comprising: (a) a base part, (b) two opposing leaves on the base part, (c) at least one intermediate leaf disposed between the opposing leaves, characterised in that: the two opposing leaves and the at least one intermediate leaf extend from the base part; the two opposing leaves and the at least one intermediate leaf are formed in a spaced apart manner, wherein the at least one intermediate leaf defines channels between the opposing leaves, the pooper scooper device being configured to be used for bagging faeces in a collection bag by placing the two opposing leaves and the at least one intermediate leaf inside the collection bag, the faeces being collected by pressing a part of the bag down onto the faeces using the leaves (3, 4), a part of said bag and the faeces being forced into and lodging in said channels. (a) a base part, (b) two opposing leaves on the base part, (c) at least one intermediate leaf disposed between the opposing leaves, the two opposing leaves and the at least one intermediate leaf extend from the base part; the two opposing leaves and the at least one intermediate leaf are formed in a spaced apart manner, wherein the at least one intermediate leaf defines channels between the opposing leaves, the pooper scooper device being configured to be used for bagging faeces in a collection bag by placing the two opposing leaves and the at least one intermediate leaf inside the collection bag, the faeces being collected by pressing a part of the bag down onto the faeces using the leaves (3, 4), a part of said bag and the faeces being forced into and lodging in said channels.
A method, comprising: for a state of a factory determined from current operating conditions of the factory: receiving streaming Programmable Logic Controller values from PLCs on a network of the factory, and receiving streaming external sensor values from sensors in the factory connected externally to the network; conducting (20424, 20425) probabilistic analytics on the streaming PLC values and streaming external sensor values against historical PLC values and historical external sensor values associated with the state of the factory; and providing an indication of a security incident when the probabilistic analytics indicative of the streaming PLC values is within expectation for the state and the streaming external sensor values are not within expectation for the state,, detecting one of a new state and a factory event when the probabilistic analytics indicative of the streaming PLC values is not within expectation for the state and the streaming external sensor values are not within expectation for the state, and when the detection is indicative of a new state, storing the streaming PLC values and the streaming external sensor values as the historical PLC values and the historical external sensor values for the new state. receiving streaming Programmable Logic Controller values from PLCs on a network of the factory, and receiving streaming external sensor values from sensors in the factory connected externally to the network; conducting (20424, 20425) probabilistic analytics on the streaming PLC values and streaming external sensor values against historical PLC values and historical external sensor values associated with the state of the factory; and providing an indication of a security incident when the probabilistic analytics indicative of the streaming PLC values is within expectation for the state and the streaming external sensor values are not within expectation for the state,, detecting one of a new state and a factory event when the probabilistic analytics indicative of the streaming PLC values is not within expectation for the state and the streaming external sensor values are not within expectation for the state, and when the detection is indicative of a new state, storing the streaming PLC values and the streaming external sensor values as the historical PLC values and the historical external sensor values for the new state.
Control device for heating circuit valves with a one-part or multi-part device housing (11, 12), in which a return spring, a control member and an actuator are provided that is connected to a first and a second electrical supply line (51; 52) and that comprises an actuator housing and a movable actuator plunger and that acts both on the return spring and the control member, with which the heating circuit valve can be operated, characterised in that the control member consists of at least one first control element and one second control element, which are in a non-connected state movable relative to each other and connectable to each other upon arrival at a coupling point and movable together in the connected state.
A scent delivery system comprising: scent delivery units that are configured to deliver scent at a variable scent level by being turned on and off successively according to a variable duty cycle, the scent delivery units being associated with corresponding base scent settings; and a central controller (102, 1000) configured to control the scent delivery units by generating command data based on a scenting schedule that indicates a desired activation time for more than one implicated scent delivery unit, the scenting schedule being configured to further indicate a scent level bias to be applied to the base scent settings that are associated with different of the implicated scent delivery units, wherein the central controller (102, 1000) is configured to generate the command data, based upon a variation in the scent level bias, that takes into account a corresponding variation to duty cycles that are associated with different of the implicated scent delivery units and to communicate the command data to the different implicated scent delivery units. scent delivery units that are configured to deliver scent at a variable scent level by being turned on and off successively according to a variable duty cycle, the scent delivery units being associated with corresponding base scent settings; and a central controller (102, 1000) configured to control the scent delivery units by generating command data based on a scenting schedule that indicates a desired activation time for more than one implicated scent delivery unit, the scenting schedule being configured to further indicate a scent level bias to be applied to the base scent settings that are associated with different of the implicated scent delivery units, wherein the central controller (102, 1000) is configured to generate the command data, based upon a variation in the scent level bias, that takes into account a corresponding variation to duty cycles that are associated with different of the implicated scent delivery units and to communicate the command data to the different implicated scent delivery units.
An air-purifying device for a vehicle, comprising: a vehicle component (6, 10, 12) arranged on a portion where an air flow passage is formed while the vehicle is traveling; an ozone purifier disposed on the surface of said vehicle component (6, 10, 12); and a particulate matter collector (22, 24) which includes activated carbon so as to collect particulate matters contained in atmospheric air flowing into said ozone purifier, wherein the activated carbon included in said particulate matter collector (22, 24) is prepared so that a distribution range of its pore sizes includes a range from 10 to 100 nm, wherein said particulate matter collector (22, 24) is disposed on the upstream of said ozone purifier in said flow passage; and said ozone purifier includes activated carbon with a smaller pore size than that of the activated carbon included in said particulate matter collector (22, 24) and is prepared so that the mode pore size of the activated carbon is 10 nm or less. a vehicle component (6, 10, 12) arranged on a portion where an air flow passage is formed while the vehicle is traveling; an ozone purifier disposed on the surface of said vehicle component (6, 10, 12); and a particulate matter collector (22, 24) which includes activated carbon so as to collect particulate matters contained in atmospheric air flowing into said ozone purifier, wherein the activated carbon included in said particulate matter collector (22, 24) is prepared so that a distribution range of its pore sizes includes a range from 10 to 100 nm, wherein said particulate matter collector (22, 24) is disposed on the upstream of said ozone purifier in said flow passage; and said ozone purifier includes activated carbon with a smaller pore size than that of the activated carbon included in said particulate matter collector (22, 24) and is prepared so that the mode pore size of the activated carbon is 10 nm or less.