mhurhangee/ep-ind-claims huggingface dataset:
A body-worn alcohol detection device comprising: a housing comprising an electronics module and an alcohol detection module; a strap for securing the housing to a limb of a user; wherein the electronics module includes a processor, a communication module and a biometric camera for capturing an image of the inside of the user's mouth; and wherein the alcohol detection module includes an alcohol detection sensor and a sample collection device; and wherein the device further comprises a reflective tube to ensure a continuous connection between the user's mouth and the alcohol detection device; wherein the reflective tube includes several layers including an exterior layer, a film layer and an interior layer enclosing a hollow channel; wherein the film layer comprises multiple fiber optic light guide pipes (306, 308) that are aligned with light sources from a tamper module of the body-worn alcohol detection device and that run parallel to a length of the reflective tube and are arranged in a circular array around a diameter of the tube. a housing comprising an electronics module and an alcohol detection module; a strap for securing the housing to a limb of a user; wherein the electronics module includes a processor, a communication module and a biometric camera for capturing an image of the inside of the user's mouth; and wherein the alcohol detection module includes an alcohol detection sensor and a sample collection device; and wherein the device further comprises a reflective tube to ensure a continuous connection between the user's mouth and the alcohol detection device; wherein the reflective tube includes several layers including an exterior layer, a film layer and an interior layer enclosing a hollow channel; wherein the film layer comprises multiple fiber optic light guide pipes (306, 308) that are aligned with light sources from a tamper module of the body-worn alcohol detection device and that run parallel to a length of the reflective tube and are arranged in a circular array around a diameter of the tube.
A weatherstrip (10, 26, 32, 34) having a sealing element on a backing (12, 28, 36, 38) which is capturable in a T- slot with the sealing element projecting out of the slot, the weatherstrip (10, 26, 32, 34) comprising a compressible member (18, 30, 48, 50) extending along said backing (12, 28, 36, 38) and adhering thereto, said member having a compressability and flexibility much greater than said backing (12, 28, 36, 38), said member and backing (12, 28, 36, 38) having approximately the same thickness, said compressibility being sufficient to enable said member to be compressed into interfering relationship with said T-slot along an interior surface thereof, characterized in that said sealing element is a compressible body and said backing (12, 28, 36, 38) is a strip, said member (18, 30, 48, 50) being a bead (18, 30, 48, 50) having a curved surface defining a profile lengthwise along said strip (12,28, 36, 38) of variable height providing said interfering relationship.
A device for protecting a portable computer apparatus comprising a screen, an attached protective frame able to be positioned around the screen of the computer apparatus and an electrical recharging base of the computer apparatus connectable to at least the sector and/or the "POE Power over Ethernet" Ethernet network and on which the protective frame is able to be placed, said protective frame comprising uprights (31, 32), a lower crosspiece and an upper crosspiece, the lower crosspiece of the protective frame comprising a connector, this connector comprising at least, on the one hand, a part complementary to a connector equipping the electrical recharging base for an electrical connection of the lower crosspiece of the protective frame to the recharging base in the state of the protective frame placed on the recharging base, on the other hand, a part connectable to the computer apparatus to allow, in the state of the computer apparatus inserted into the protective frame and in the state of the protective frame placed on the recharging base, at least an electrical power supply of the computer apparatus via the lower crosspiece of the protective frame, characterized in that the protective frame comprises four profiles, respectively able to form the uprights (31, 32) and the lower and upper crosspieces of the protective frame, four corner pieces and connecting means for connecting the corner pieces and profiles to one another, the profiles and the corner pieces being longitudinally slotted to delimit a groove inside which part of the peripheral edge of the screen of the computer apparatus is able to be inserted, the connecting means of the profiles and corner parts relative to one another being configured to allow a nonremovable connection between profile and corner part in the mounted state of the frame.
Device for washing nasal cavities by a nebulised treatment liquid, comprising: - a main body, - a tank of liquids above the main body and including at least a nebulisation chamber, containing the washing liquid, - means for drawing and nebulising the treatment liquid from said nebulisation chamber and supplying the nebulised liquid towards the nasal cavities with the help of a flow of air under pressure generated by a compressor group, wherein the compressor group includes an electronic circuit piloting the device, connected to an electric battery system which comprises batteries that are rechargeable and connectable to a recharger unit, characterised in that said main body has a cavity closed by a sealing base cap and said compressor group, said piloting electronic circuit and said electric battery system are all housed in the cavity of said body, in that the compressor group is in communication, on one part, with the outside by means of an intake passage and, on the other part, with said means of collecting and nebulising the treatment liquid through a delivery nozzle, and in that the intake passage of the air by the compressor group pump is associated with an intake valve. - a main body, - a tank of liquids above the main body and including at least a nebulisation chamber, containing the washing liquid, - means for drawing and nebulising the treatment liquid from said nebulisation chamber and supplying the nebulised liquid towards the nasal cavities with the help of a flow of air under pressure generated by a compressor group,
A catalyst for C2 oxygenate synthesis from a mixed gas containing hydrogen and carbon monoxide, the catalyst comprising rhodium, manganese and lithium as hydrogenated active metals, and titanium as an auxiliary active metal, which are supported on a porous carrier, wherein the porous carrier has an average pore diameter of 0.1 to 20 nm.
An inductively heating aerosol-generating device (10, 710, 810, 910) for generating an aerosol by heating an aerosol-forming substrate, the device (10, 710, 810, 910) comprising - a receiving cavity (20, 720, 820, 920) for receiving the aerosol-forming substrate to be heated; - an induction source configured to generate an alternating electromagnetic field; - a susceptor assembly (60, 160, 260, 360, 760, 860, 960) configured and arranged to inductively heat the aerosol-forming substrate within the receiving cavity (20, 720, 820, 920) under the influence of the alternating magnetic field generated by the induction source, wherein the susceptor assembly (60, 160, 260, 360, 760, 860, 960) comprises a first susceptor (61, 161, 261, 361, 761, 861, 961) and a second susceptor (62, 162, 262, 362, 762, 862, 962), wherein the first susceptor (61, 161, 261, 361, 761, 861, 961) comprises a first susceptor material having a positive temperature coefficient of resistance, and wherein the second susceptor (62, 162, 262, 362, 762, 862, 962) comprises a second ferromagnetic or ferrimagnetic susceptor material having a negative temperature coefficient of resistance. - a receiving cavity (20, 720, 820, 920) for receiving the aerosol-forming substrate to be heated; - an induction source configured to generate an alternating electromagnetic field; - a susceptor assembly (60, 160, 260, 360, 760, 860, 960) configured and arranged to inductively heat the aerosol-forming substrate within the receiving cavity (20, 720, 820, 920) under the influence of the alternating magnetic field generated by the induction source, wherein the susceptor assembly (60, 160, 260, 360, 760, 860, 960) comprises a first susceptor (61, 161, 261, 361, 761, 861, 961) and a second susceptor (62, 162, 262, 362, 762, 862, 962), wherein the first susceptor (61, 161, 261, 361, 761, 861, 961) comprises a first susceptor material having a positive temperature coefficient of resistance, and wherein the second susceptor (62, 162, 262, 362, 762, 862, 962) comprises a second ferromagnetic or ferrimagnetic susceptor material having a negative temperature coefficient of resistance.
A cleaning apparatus (11, 211) for cleaning parts, the cleaning apparatus (11, 211) comprising: a housing (15, 215) defining a washing chamber, the washing chamber having an opening through which parts may be loaded and unloaded into and out of the washing chamber; a support cradle adapted to support components to be cleaned, the support cradle being located in the washing chamber; a spray system adapted to direct a washing solution to clean a part in the washing chamber, the spray system comprising a spray array, the spray array comprising a rotatable spray head, the spray head comprising a plurality of nozzles through which the washing solution is directed to clean the part in the washing chamber; and a closure which provides controlled access to the washing chamber through the opening, the closure being movable between a closed position to sealingly close the opening, and an open position to allow for loading and unloading of parts into and out of the washing chamber; wherein when in an open position the closure is supported in a position away from the opening such that the closure does not provide an obstruction to the opening; characterised in that: the spray array comprises a plurality of spray heads, each spray head being independently rotatable. a housing (15, 215) defining a washing chamber, the washing chamber having an opening through which parts may be loaded and unloaded into and out of the washing chamber; a support cradle adapted to support components to be cleaned, the support cradle being located in the washing chamber; a spray system adapted to direct a washing solution to clean a part in the washing chamber, the spray system comprising a spray array, the spray array comprising a rotatable spray head, the spray head comprising a plurality of nozzles through which the washing solution is directed to clean the part in the washing chamber; and a closure which provides controlled access to the washing chamber through the opening, the closure being movable between a closed position to sealingly close the opening, and an open position to allow for loading and unloading of parts into and out of the washing chamber; wherein when in an open position the closure is supported in a position away from the opening such that the closure does not provide an obstruction to the opening; characterised in that: the spray array comprises a plurality of spray heads, each spray head being independently rotatable.
A resin composition comprising: cellulose ester in an amount of from 50 to 95 phr; and an acrylonitrile-styrene copolymer-containing resin in an amount of from 5 to 50 phr, wherein the term "phr" indicates the abbreviation of "per hundred resin" and represent "parts by weight" with respect to 100 parts by weight of the entire resin component. cellulose ester in an amount of from 50 to 95 phr; and an acrylonitrile-styrene copolymer-containing resin in an amount of from 5 to 50 phr, wherein the term "phr" indicates the abbreviation of "per hundred resin" and represent "parts by weight" with respect to 100 parts by weight of the entire resin component.
Sensor system for determining an optical property of a plant by means of a reflection measurement, having a first light source, which emits light along a first beam axis, and a second light source, which emits light along a second beam axis, and at least one first receiver, which is aligned along a third beam axis, to detect light reflected from the plant, wherein the first light source, the second light source, and the at least one first receiver are arranged relative to one another in such a manner that a target cylinder (26, 26'), which respectively extends along the first beam axis and the second beam axis, and a first measuring cylinder, which extends along the third beam axis, at least partially overlap one another in a measuring space, and the first beam axis and the second beam axis respectively enclose an angle (α, δ) with the third beam axis, characterized in that a fastening of the first light source and of the second light source and of the at least one first receiver is provided such that the angles (α, β, γ, δ) between the beam axes (16, 20) of the light sources (14, 18) and the beam axis (24, 32) of the at least one receiver (22, 30) and a distance between the light sources (14, 18) and the at least one receiver (22, 30) can be adjusted in order to adjust the measuring space, and in that the target cylinder of the first light source and the target cylinder of the second light source in the measuring space each have a diameter of 1 mm to 6 mm, wherein the measuring cylinder (28, 28') of the at least one receiver (22, 30) in the measuring space has a diameter of 8 mm.
A system for recording of electrical signals in the presence of artifacts, comprising: at least one stimulation electrode (215a, 215b; 235) configured to introduce a stimulation signal; a recording electrode configured to receive an electrical signal; a blanking circuit electrically coupled to the recording electrode, the blanking circuit comprising a switch in parallel with a capacitor, wherein the switch effectively shorts the capacitor when closed; an amplifier (150, 330, 400) electrically coupled to the blanking circuit, the blanking circuit being located between the recording electrode and an input to the amplifier (150, 330, 400), and the amplifier being configured to amplify said electrical signal, wherein the amplifier has a first gain when the switch is closed and a second gain lower than the first gain when the switch is open; a driver electrically coupled to the amplifier and configured to buffer an output of the amplifier; and the system being configured to open the switch of the blanking circuit for a blanking period, wherein the at least one stimulation electrode (215a, 215b; 235) is configured to introduce the stimulation signal during the blanking period. at least one stimulation electrode (215a, 215b; 235) configured to introduce a stimulation signal; a recording electrode configured to receive an electrical signal; a blanking circuit electrically coupled to the recording electrode, the blanking circuit comprising a switch in parallel with a capacitor, wherein the switch effectively shorts the capacitor when closed; an amplifier (150, 330, 400) electrically coupled to the blanking circuit, the blanking circuit being located between the recording electrode and an input to the amplifier (150, 330, 400), and the amplifier being configured to amplify said electrical signal, wherein the amplifier has a first gain when the switch is closed and a second gain lower than the first gain when the switch is open; a driver electrically coupled to the amplifier and configured to buffer an output of the amplifier; and the system being configured to open the switch of the blanking circuit for a blanking period, wherein the at least one stimulation electrode (215a, 215b; 235) is configured to introduce the stimulation signal during the blanking period.
An aviation turbine engine fan module comprising: a fan, a low-pressure compressor, inlet guide vanes situated upstream from the low-pressure compressor and downstream from the fan, and a deicer device for deicing both a splitter nose and also inlet guide vanes of the turbine engine, said deicer device comprising: • a splitter nose for positioning downstream from the fan of the turbine engine in order to split a stream coming from the fan into primary and secondary stream flow channels (4, 6) of annular shape, said nose having an outer annular wall defining the inside of the secondary stream flow channel and an inner annular wall defining an inlet of the primary stream flow channel, said inner annular wall being provided with injection orifices positioned upstream from the inlet guide vanes and through which hot air is to be blown; and • an inner shroud to which the inlet guide vanes are fastened and including a hook that is axisymmetric about a longitudinal axis (X-X) of the turbine engine, said inner shroud being held axially at its upstream end against the inner annular wall by said hook; the module being characterized in that the hook has an outer surface facing the outer annular wall and forming an angle (α) of less than 90° with the axis of an injection orifice such that the outer surface of the hook comes progressively closer to the outer annular wall on going away from said injection orifice, the outer surface of the hook presenting a minimum amount of clearance J relative to the outer annular wall such that: 0.2 ≤ J / D ≤ 0.6 where D is the hydraulic diameter of the injection orifice. • a splitter nose for positioning downstream from the fan of the turbine engine in order to split a stream coming from the fan into primary and secondary stream flow channels (4, 6) of annular shape, said nose having an outer annular wall defining the inside of the secondary stream flow channel and an inner annular wall defining an inlet of the primary stream flow channel, said inner annular wall being provided with injection orifices positioned upstream from the inlet guide vanes and through which hot air is to be blown; and • an inner shroud to which the inlet guide vanes are fastened and including a hook that is axisymmetric about a longitudinal axis (X-X) of the turbine engine, said inner shroud being held axially at its upstream end against the inner annular wall by said hook;
An optical component for illuminating a sample region with a periodic light pattern, the optical component comprising a first waveguide, a further waveguide (916, 917, 918, 919), and an optical splitter, the optical splitter having (i) an input for receiving input light, (ii) a first output, and (iii) a second output, wherein: the first output of the optical splitter is optically coupled to the first waveguide so as to direct first input light into the first waveguide; the first waveguide is arranged to use total internal reflection to direct the first input light into the sample region along a first path in a first direction; the second output of the optical splitter is optically coupled to the sample region so as to direct second input light into the sample region along a second path in a second direction; the further waveguide (916, 917, 918, 919) is arranged to receive third input light and to use total internal reflection to direct the third input light into the sample region along a third path in a third direction (916a, 917a, 918a, 919a); the second direction is different from the first direction so that, in use, the first input light interferes with the second input light to form a periodic light pattern in the sample region; the third direction (916a, 917a, 918a, 919a) is different from the first direction and from the second direction; and the first, second and third directions (914a; 915a; 916a, 917a, 918a, 919a) are coplanar. the first output of the optical splitter is optically coupled to the first waveguide so as to direct first input light into the first waveguide; the first waveguide is arranged to use total internal reflection to direct the first input light into the sample region along a first path in a first direction; the second output of the optical splitter is optically coupled to the sample region so as to direct second input light into the sample region along a second path in a second direction; the further waveguide (916, 917, 918, 919) is arranged to receive third input light and to use total internal reflection to direct the third input light into the sample region along a third path in a third direction (916a, 917a, 918a, 919a); the second direction is different from the first direction so that, in use, the first input light interferes with the second input light to form a periodic light pattern in the sample region; the third direction (916a, 917a, 918a, 919a) is different from the first direction and from the second direction; and the first, second and third directions (914a; 915a; 916a, 917a, 918a, 919a) are coplanar.
Machine for processing elements in the form of sheets, comprising - a plurality of work stations (100, 200, 300, 400, 500), - a transport device for transporting each sheet successively in different work stations (300, 400, 500), comprising two lateral chain sets which are connected to the ends of a plurality of transverse gripper bars which are capable of gripping the sheets on the front edges thereof, - at least one device for guiding chains by means of a chain set, - at least one tensioning device generating a tension force in said two chain sets, and comprising at least one motor element which is capable of generating a variable force (Fv), the intensity of which is dependent on the current rate of the machine, said variable force (Fv) being applied to said chain-guiding devices, characterised in that the tensioning device also comprises at least one return device generating a substantially constant force (Fc), said constant force (Fc) being applied in combination with said variable force (Fv) generated by said motor element. - a plurality of work stations (100, 200, 300, 400, 500), - a transport device for transporting each sheet successively in different work stations (300, 400, 500), comprising two lateral chain sets which are connected to the ends of a plurality of transverse gripper bars which are capable of gripping the sheets on the front edges thereof, - at least one device for guiding chains by means of a chain set, - at least one tensioning device generating a tension force in said two chain sets, and comprising at least one motor element which is capable of generating a variable force (Fv), the intensity of which is dependent on the current rate of the machine, said variable force (Fv) being applied to said chain-guiding devices,
A method for three-dimensional printing, comprising: applying a build material composition to form a build material layer, the build material composition including a polyamide, wherein the polyamide is in the form of polyamide powder or polyamide particles; based on a 3D object model, selectively melting the polyamide in at least a portion of the build material layer to form a molten portion including molten polyamide; and based on the 3D object model, selectively applying an epoxy agent on the molten portion of the build material layer, the epoxy agent including a polyfunctional epoxy that crosslinks the molten polyamide in the molten portion. applying a build material composition to form a build material layer, the build material composition including a polyamide, wherein the polyamide is in the form of polyamide powder or polyamide particles; based on a 3D object model, selectively melting the polyamide in at least a portion of the build material layer to form a molten portion including molten polyamide; and based on the 3D object model, selectively applying an epoxy agent on the molten portion of the build material layer, the epoxy agent including a polyfunctional epoxy that crosslinks the molten polyamide in the molten portion.