mhurhangee/ep-ind-claims huggingface dataset:
A deadfront article for a display comprising: a cover structure comprising: an inner surface; an outer surface opposite the inner surface; a light guide layer comprising: an inner surface; and an outer surface facing toward the inner surface of the cover structure; and a light extraction layer located on at least one of the inner surface and the outer surface of the light guide layer; characterized in that: the cover structure comprises: a glass layer located between the inner surface and the outer surface; a first layer of light transmitting ink or pigment located between the inner surface of the cover structure and the glass layer; and at least one of: the light extraction layer is a white ink material having an average thickness in a range of.05 μm to 500 μm, and the cover structure comprises a second layer of light transmitting ink or pigment disposed between the first layer and the light extraction layer. a cover structure comprising: an inner surface; an outer surface opposite the inner surface; an inner surface; an outer surface opposite the inner surface; a light guide layer comprising: an inner surface; and an outer surface facing toward the inner surface of the cover structure; and an inner surface; and an outer surface facing toward the inner surface of the cover structure; and a light extraction layer located on at least one of the inner surface and the outer surface of the light guide layer; characterized in that: the cover structure comprises: a glass layer located between the inner surface and the outer surface; a first layer of light transmitting ink or pigment located between the inner surface of the cover structure and the glass layer; and at least one of: the light extraction layer is a white ink material having an average thickness in a range of.05 μm to 500 μm, and the cover structure comprises a second layer of light transmitting ink or pigment disposed between the first layer and the light extraction layer. the cover structure comprises: a glass layer located between the inner surface and the outer surface; a first layer of light transmitting ink or pigment located between the inner surface of the cover structure and the glass layer; and at least one of: the light extraction layer is a white ink material having an average thickness in a range of.05 μm to 500 μm, and the cover structure comprises a second layer of light transmitting ink or pigment disposed between the first layer and the light extraction layer. the light extraction layer is a white ink material having an average thickness in a range of.05 μm to 500 μm, and the cover structure comprises a second layer of light transmitting ink or pigment disposed between the first layer and the light extraction layer.
An electrosurgical system comprising: a plurality of electrosurgical connection units, each electrosurgical connection unit comprising an input port connectable to an electrosurgical channel and an output port connectable to an electrosurgical instrument, each electrosurgical connection unit configured to connect its respective input port to its respective output port; an electrosurgical network comprising a plurality of electrosurgical links that connect the input ports of the electrosurgical connection units to an electrosurgical channel via an electrosurgical output device; a second electrosurgical network comprising a plurality of electrosurgical links connecting the input ports of the electrosurgical connection units to a second electrosurgical channel; and a control unit configured to transmit one or more control signals to the electrosurgical connection units and/or the electrosurgical output device to cause the output port of a selected combination of electrosurgical connection units to be connected to the electrosurgical channel; wherein at least one of the electrosurgical connection units comprises a channel switching unit situated between the input port and the output port, and the switching unit is configured to controllably connect either of the electrosurgical channel and the second electrosurgical channel to the output port in response to a control signal. a plurality of electrosurgical connection units, each electrosurgical connection unit comprising an input port connectable to an electrosurgical channel and an output port connectable to an electrosurgical instrument, each electrosurgical connection unit configured to connect its respective input port to its respective output port; an electrosurgical network comprising a plurality of electrosurgical links that connect the input ports of the electrosurgical connection units to an electrosurgical channel via an electrosurgical output device; a second electrosurgical network comprising a plurality of electrosurgical links connecting the input ports of the electrosurgical connection units to a second electrosurgical channel; and a control unit configured to transmit one or more control signals to the electrosurgical connection units and/or the electrosurgical output device to cause the output port of a selected combination of electrosurgical connection units to be connected to the electrosurgical channel; wherein at least one of the electrosurgical connection units comprises a channel switching unit situated between the input port and the output port, and the switching unit is configured to controllably connect either of the electrosurgical channel and the second electrosurgical channel to the output port in response to a control signal.
A stented valve comprising: a stent structure comprising a tubular body portion having a first end, a second end, an interior area, a longitudinal axis, and a plurality of vertical wires (12, 16) extending parallel to the longitudinal axis around a periphery of the body portion, wherein the plurality of vertical wires (12, 16) includes multiple commissure structures and at least one structural wire positioned between adjacent commissure structures, and a plurality of V-shaped wire structures (18, 20, 22) having a first end, a second end, and a peak between the first and second ends, wherein a first end of each V-shaped structure (18, 20, 22) extends from a first vertical wire and a second end of each V-shaped structure (18, 20, 22) extends from a second vertical wire that is adjacent to the first vertical wire; and a valve structure comprising a plurality of leaflets attached to the stent structure within the tubular body portion; characterised in that each V-shaped structure (18, 20, 22) of the stent structure is oriented so that the peak of each V-shaped structure (18, 20, 22) of the stent structure is facing in the same direction relative to the first and second ends of the body portion. a stent structure comprising a tubular body portion having a first end, a second end, an interior area, a longitudinal axis, and a plurality of vertical wires (12, 16) extending parallel to the longitudinal axis around a periphery of the body portion, wherein the plurality of vertical wires (12, 16) includes multiple commissure structures and at least one structural wire positioned between adjacent commissure structures, and a plurality of V-shaped wire structures (18, 20, 22) having a first end, a second end, and a peak between the first and second ends, wherein a first end of each V-shaped structure (18, 20, 22) extends from a first vertical wire and a second end of each V-shaped structure (18, 20, 22) extends from a second vertical wire that is adjacent to the first vertical wire; and a valve structure comprising a plurality of leaflets attached to the stent structure within the tubular body portion;
A pump cartridge for a compounder system, the pump cartridge comprising: at least one diluent port configured to receive a diluent in a diluent chamber; a receiving container port configured to provide a fluid to a receiving container; a plurality of controllable fluid pathways fluidly coupled to the at least one diluent port and the receiving container port; [[and]] a pump configured to pump the fluid within the plurality of controllable fluid pathways; a cartridge frame; a cartridge bezel; and characterized by: a sealing membrane disposed between the cartridge frame and the cartridge bezel, wherein the at least one diluent port formed, in part, from a portion of the sealing membrane that extends into a corresponding opening in the cartridge bezel. at least one diluent port configured to receive a diluent in a diluent chamber; a receiving container port configured to provide a fluid to a receiving container; a plurality of controllable fluid pathways fluidly coupled to the at least one diluent port and the receiving container port; [[and]] a pump configured to pump the fluid within the plurality of controllable fluid pathways; a cartridge frame; a cartridge bezel; and characterized by: a sealing membrane disposed between the cartridge frame and the cartridge bezel, wherein the at least one diluent port formed, in part, from a portion of the sealing membrane that extends into a corresponding opening in the cartridge bezel.
A resin composition comprising: an inorganic filler; a thermosetting resin; and a thermosetting catalyst, wherein the inorganic filler contains an aggregated inorganic filler, the thermosetting resin contains an epoxy resin, the resin composition contains two or more kinds of thermosetting catalysts having a melting point of 100°C or higher, and two or more kinds of the thermosetting catalysts have a structure derived from imidazole. an inorganic filler; a thermosetting resin; and a thermosetting catalyst, wherein the inorganic filler contains an aggregated inorganic filler, the thermosetting resin contains an epoxy resin, the resin composition contains two or more kinds of thermosetting catalysts having a melting point of 100°C or higher, and two or more kinds of the thermosetting catalysts have a structure derived from imidazole.
A reciprocating-piston pump having a magnetic drive and having a first displacement space (25; 125) and a second displacement space (26; 126) which are separated from one another by a piston, the two displacement spaces (25, 26; 125, 126) being connected to one another by a fluid-conducting channel, an overflow valve (9; 109) which allows a preferred flow from the first displacement space (25; 125) to the second displacement space (26; 126) being arranged in the channel, a further nonreturn valve (14; 130) being arranged either in a transition region between an inlet and the first displacement space or in a transition region between the second displacement space (26; 126) and an outlet, an armature of the magnetic drive being connected fixedly to the piston, the piston being mounted in an axially displaceable manner in a sliding bearing (20; 120), which sliding bearing (20; 120) is dimensioned in such a way that it acts at the same time as a dynamic seal which separates the first displacement space (25; 125) and the second displacement space (26; 126) from one another, and restoring means (8; 22) being arranged and dimensioned in such a way that they restore the armature in the direction of its starting position after the magnetic drive is switched off, characterized in that the prestress of the restoring means (8; 22) is adapted to the selected setpoint value of the pressure in the outlet, and that the prestress of the restoring means (8; 22) can be set by displacement of a static spring means mounting (23; 29).
A method for transmitting information by an evolved NodeB, eNB, in a wireless communication system, the method comprising: receiving, by the eNB, a random access preamble from a user equipment, UE; transmitting, by the eNB, a random access response which is a response to the random access preamble to the UE; receiving, by the eNB, a message 3 of a random access procedure from the UE, wherein the message 3 indicates that the UE is a low-end UE; receiving, by the eNB, a low-end UE capability from the UE; and transferring, by the eNB, the low-end UE capability to a mobility management entity, MME, wherein the low-end UE capability is transmitted by the MME to another eNB, and wherein the low-end UE includes a low-cost machine-type communication, MTC, device. receiving, by the eNB, a random access preamble from a user equipment, UE; transmitting, by the eNB, a random access response which is a response to the random access preamble to the UE; receiving, by the eNB, a message 3 of a random access procedure from the UE, wherein the message 3 indicates that the UE is a low-end UE; receiving, by the eNB, a low-end UE capability from the UE; and transferring, by the eNB, the low-end UE capability to a mobility management entity, MME, wherein the low-end UE capability is transmitted by the MME to another eNB, and wherein the low-end UE includes a low-cost machine-type communication, MTC, device.
A chuck plate assembly for depositing an organic material on a glass substrate, comprising: the glass substrate having a back side and a front side; a shadow mask formed with a predetermined pattern, and being aligned and attached to the front side of the glass substrate; and a shadow mask frame being aligned and attached to the shadow mask; characterized in that the chuck plate assembly further comprises: a cooling plate mounted with an inner portion on at least a part of the shadow mask and with an exposure portion on at least a part of the shadow mask frame, wherein the inner portion extending from the exposure portion towards the shadow mask is having a tapered profile and wherein the cooling plate is configured for intercepting radiant heat from the shadow mask frame and for cooling the shadow mask frame; and a chuck plate aligned and attached with its front surface to the back side of the glass substrate, wherein the chuck plate includes a refrigerant circulating duct through which a refrigerant circulates. the glass substrate having a back side and a front side; a shadow mask formed with a predetermined pattern, and being aligned and attached to the front side of the glass substrate; and a shadow mask frame being aligned and attached to the shadow mask; a cooling plate mounted with an inner portion on at least a part of the shadow mask and with an exposure portion on at least a part of the shadow mask frame, wherein the inner portion extending from the exposure portion towards the shadow mask is having a tapered profile and wherein the cooling plate is configured for intercepting radiant heat from the shadow mask frame and for cooling the shadow mask frame; and a chuck plate aligned and attached with its front surface to the back side of the glass substrate, wherein the chuck plate includes a refrigerant circulating duct through which a refrigerant circulates.
A computer implemented method for probabilistic estimation of fatigue crack life of a gas turbine component configured for being subjected cyclic stress, the method comprising: - defining a plurality of representations of the component from material property scatter data (90a-g) and flaw-size scatter data (90h-j)of the component, wherein each representation is defined by one possible material condition and flaw-size condition associated with the component, - for each individual representation, selecting a component location and determining whether said individual representation fails after a given number of cycles N, based on determination of a crack growth in the selected location, the crack growth being determined on the basis of the material condition and the flaw-size condition in the selected location, wherein failure of the individual representation is determined if the crack growth is determined to be unstable, - determining a sum total of the number of the representations that failed after N cycles, and - determining a probability of failure of the component after N cycles, as PoF = Nf/S, wherein: PoF is the probability of failure of the component after N cycles, Nf is the total sum of the number of representations that are determined to have failed after N cycles, and S is the total number of representations; and wherein the method is realized by a Monte-Carlo methodology, assuming that each individual representation has the same probability of occurrence (micro-canonical ensemble) and that flaw position distribution is constant. - defining a plurality of representations of the component from material property scatter data (90a-g) and flaw-size scatter data (90h-j)of the component, wherein each representation is defined by one possible material condition and flaw-size condition associated with the component, - for each individual representation, selecting a component location and determining whether said individual representation fails after a given number of cycles N, based on determination of a crack growth in the selected location, the crack growth being determined on the basis of the material condition and the flaw-size condition in the selected location, wherein failure of the individual representation is determined if the crack growth is determined to be unstable, - determining a sum total of the number of the representations that failed after N cycles, and - determining a probability of failure of the component after N cycles, as PoF = Nf/S, PoF is the probability of failure of the component after N cycles, Nf is the total sum of the number of representations that are determined to have failed after N cycles, and S is the total number of representations; and wherein the method is realized by a Monte-Carlo methodology, assuming that each individual representation has the same probability of occurrence (micro-canonical ensemble) and that flaw position distribution is constant.
A lifting apparatus (10, 110, 210, 310) for raising a user in a body of water (14, 114, 214, 314), the lifting apparatus (10, 110, 210, 310) comprising a platform (16, 116, 216, 316) configured to receive a wheelchair (12, 112, 212, 312), the apparatus (10, 110, 210, 310) being reconfigurable between: a raised configuration; a lowered configuration; and a storage configuration; wherein the apparatus (10, 110, 210, 310) is configured to maintain the platform (16, 116, 216, 316) in a substantially horizontal orientation in the raised, lowered and storage configurations; and the apparatus (10, 110, 210, 310) is configured to move the platform (16, 116, 216, 316) along a substantially continuous path between the storage and raised and lowered configurations, and wherein the path is defined substantially in a single plane. a raised configuration; a lowered configuration; and a storage configuration; wherein the apparatus (10, 110, 210, 310) is configured to maintain the platform (16, 116, 216, 316) in a substantially horizontal orientation in the raised, lowered and storage configurations; and the apparatus (10, 110, 210, 310) is configured to move the platform (16, 116, 216, 316) along a substantially continuous path between the storage and raised and lowered configurations, and wherein the path is defined substantially in a single plane.
An arrangement for the sterile handling of a non-sterile endoscope in a sterile environment, with a sterile endoscope sheath (12, 112) for accommodating the endoscope (14, 114), with a cable (18, 118) that is connectable to the endoscope (14, 114), with a sterile cable sheath (16, 116) for accommodating at least a portion of the cable (18, 118), characterized in that the endoscope sheath (12, 112) comprises a first sterile lock (42, 142) comprising at least one first sterile flap (44, 46, 144, 146) which in the closed state shields the endoscope (14, 114) arranged in the endoscope sheath (12, 112) in a sterile manner, that the cable sheath (16, 116) comprises a second sterile lock (48, 148) having a second sterile flap (50, 52, 150, 152) which in a closed state shields the cable (18, 118) and/or a plug connector present on the cable (18, 118) in a sterile manner, that when the cable (18, 118) or the plug connector is connected to the endoscope (14, 114) a movement of the first sterile flap (44, 46, 144, 146) from the closed state into an open state and a movement of the second sterile flap (50, 52, 150, 152) from the closed state into an open state takes place so that a direct coupling of the cable (18, 118) to the endoscope (14, 114) or of the plug connector connected to the cable (18, 118) to a complementary plug connector of the endoscope (14, 114) is possible, and that when the cable (18, 118) is separated from the endoscope (14, 114) a movement of the first sterile flap (44, 46, 144, 146) from the open state into the closed state and a movement of the second sterile flap (50, 52, 150, 152) from the open into the closed state takes place so that the first sterile flap (44, 46, 144, 146) shields the endoscope (14, 114) arranged in the endoscope sheath (12, 112) in a sterile manner after separation and the second sterile flap (50, 52, 150, 152) shields the cable (18, 118) arranged in the cable sheath (16, 116) and/or the plug connector in a sterile manner after separation.
Battery unit, notably for a hybrid and/or electric motor vehicle, comprising, on the one hand, a plurality of battery cells or elements, if necessary grouped together physically and/or electrically in several blocks or modules, on the other hand, a housing accommodating and surrounding said cells or elements and, finally, means (4, 5) for regulating the temperature of said cells or elements by circulation of heat-transfer fluid, said battery unit being characterized in that the housing is made of a plastic material and consists of a molded bottom tray, with a bottom and lateral walls (6") forming the body (6', 6") of the tray, and of a top cover, which are assembled peripherally, preferentially by screwing, in that at least the tray comprises means (4, 5) for distributing and collecting and circulating the heat-transfer fluid which are incorporated structurally in the body (6', 6") of said tray, by being formed at least partially of a single piece therewith, and in that the distribution and collection means comprise at least one duct for supplying heat-transfer fluid and at least one duct (5") for collecting and discharging heat-transfer fluid, and are arranged on at least a part of the lateral perimeter of the tray and are formed in and/or on the outer face of the wall of the body (6', 6'') of said tray. said battery unit being characterized in that the housing is made of a plastic material and consists of a molded bottom tray, with a bottom and lateral walls (6") forming the body (6', 6") of the tray, and of a top cover, which are assembled peripherally, preferentially by screwing, in that at least the tray comprises means (4, 5) for distributing and collecting and circulating the heat-transfer fluid which are incorporated structurally in the body (6', 6") of said tray, by being formed at least partially of a single piece therewith, and in that the distribution and collection means comprise at least one duct for supplying heat-transfer fluid and at least one duct (5") for collecting and discharging heat-transfer fluid, and are arranged on at least a part of the lateral perimeter of the tray and are formed in and/or on the outer face of the wall of the body (6', 6'') of said tray.