mhurhangee/ep-ind-claims huggingface dataset:
A vehicular rearview assembly, comprising: a display configured to emit light of a first polarization; a reflective polarizer positioned adjacent the display, the reflective polarizer configured to transmit the light of a first polarization and reflect light of a second polarization; and an electro-optic element comprising: a first substantially transparent substrate defining first and second surfaces, wherein the second surface comprises a first electrically conductive layer; a second substantially transparent substrate defining third and fourth surfaces, wherein the third surface comprises a second electrically conductive layer; and a primary seal disposed between the first and second substrates, wherein the primary seal and the first and second substrates define a cavity there between; characterized in that a polymeric film (122, 134, 154) comprising a plurality of polymeric chains disposed within the cavity, wherein the polymeric film (122, 134, 154) includes a plurality of electrochromics disposed on the polymeric chains, and wherein the polymeric chains are aligned with the light of the second polarization, the polymeric film (122, 134, 154) being variably transmissive to the light of the second polarization such that the electro-optic element is operable between substantially clear and darkened states relative to the light of the second polarization. a display configured to emit light of a first polarization; a reflective polarizer positioned adjacent the display, the reflective polarizer configured to transmit the light of a first polarization and reflect light of a second polarization; and an electro-optic element comprising: a first substantially transparent substrate defining first and second surfaces, wherein the second surface comprises a first electrically conductive layer; a second substantially transparent substrate defining third and fourth surfaces, wherein the third surface comprises a second electrically conductive layer; and a primary seal disposed between the first and second substrates, wherein the primary seal and the first and second substrates define a cavity there between; a first substantially transparent substrate defining first and second surfaces, wherein the second surface comprises a first electrically conductive layer; a second substantially transparent substrate defining third and fourth surfaces, wherein the third surface comprises a second electrically conductive layer; and a primary seal disposed between the first and second substrates, wherein the primary seal and the first and second substrates define a cavity there between; characterized in that a polymeric film (122, 134, 154) comprising a plurality of polymeric chains disposed within the cavity, wherein the polymeric film (122, 134, 154) includes a plurality of electrochromics disposed on the polymeric chains, and wherein the polymeric chains are aligned with the light of the second polarization, the polymeric film (122, 134, 154) being variably transmissive to the light of the second polarization such that the electro-optic element is operable between substantially clear and darkened states relative to the light of the second polarization.
An apparatus for spinal surgery, comprising: a first supporting member having a first longitudinal passage extending therethrough, and having a first supporting end configured to engage tissue; a second supporting member having a second longitudinal passage extending therethrough and a second supporting end, the second longitudinal passage being dimensioned to receive at least a portion of the first supporting member, the second supporting end being configured to engage tissue, wherein the first and second supporting members (12, 14) are configured to move with respect to each other; and an expansion member configured for removable placement between the first and second supporting members (12, 14) to maintain the first and second supporting members (12, 14) in a fixed relationship, the expansion member including a backspan, characterized in that the backspan includes a locking portion, and first and second legs extending transversely from the backspan, the locking portion including first and second movable cantilevered arms (61, 63) coupled to the locking portion, each of the first and second movable cantilevered arms (61, 63) being configured to engage the first and second supporting members (12, 14) to releasably secure the expansion member between the first and second supporting members (12, 14). a first supporting member having a first longitudinal passage extending therethrough, and having a first supporting end configured to engage tissue; a second supporting member having a second longitudinal passage extending therethrough and a second supporting end, the second longitudinal passage being dimensioned to receive at least a portion of the first supporting member, the second supporting end being configured to engage tissue, wherein the first and second supporting members (12, 14) are configured to move with respect to each other; and an expansion member configured for removable placement between the first and second supporting members (12, 14) to maintain the first and second supporting members (12, 14) in a fixed relationship, the expansion member including a backspan,
A temperature device, comprising: a flexible substrate having first and second sides (108, 109); the flexible substrate including a circular center section, a tab contiguous with the center section and extending from the center section in a first radial direction, and a tail contiguous with the center section and extending from the center section in a second radial direction; a first thermal sensor disposed on the first side, substantially at the center of the center section; a heater trace disposed on the first side, in the center section, around the first thermal sensor; a second thermal sensor disposed on the first side, in the tail; a plurality of electrical pads disposed on the first side, in the tab; a plurality of traces disposed on the first side and connecting the first and second thermal sensors (120, 126) and the heater trace with the plurality of electrical pads; the center section and the tail folded together to position the first and second thermal sensors (120, 126) in a spaced-apart relationship; and, a layer of flexible insulation disposed between the folded-together center section and tail. a flexible substrate having first and second sides (108, 109); the flexible substrate including a circular center section, a tab contiguous with the center section and extending from the center section in a first radial direction, and a tail contiguous with the center section and extending from the center section in a second radial direction; a first thermal sensor disposed on the first side, substantially at the center of the center section; a heater trace disposed on the first side, in the center section, around the first thermal sensor; a second thermal sensor disposed on the first side, in the tail; a plurality of electrical pads disposed on the first side, in the tab; a plurality of traces disposed on the first side and connecting the first and second thermal sensors (120, 126) and the heater trace with the plurality of electrical pads; the center section and the tail folded together to position the first and second thermal sensors (120, 126) in a spaced-apart relationship; and, a layer of flexible insulation disposed between the folded-together center section and tail.
A shoe, of the type comprising a sole, in particular comprising an upper part on which a user's foot is intended to rest, wherein: - the shoe comprises at least one element retaining the user's foot on the sole, - the sole comprises a rear support element for a rear end of the upper part, and a front support element for a front end of the upper part, and - the front and rear support elements delimit an open space with the upper part, extending substantially over the entire length of that upper part from the area intended to support the heel to the area intended to support the toes of the user, - the upper part of the sole has an upper surface, on which the user's foot is intended to rest, and a lower surface, opposite the upper surface, intended to face the ground, characterized in that the lower surface comprises means for catching the retaining element, comprising fastening spurs protruding toward the open space from the lower surface, and orifices complementary to those spurs formed in the retaining element. - the shoe comprises at least one element retaining the user's foot on the sole, - the sole comprises a rear support element for a rear end of the upper part, and a front support element for a front end of the upper part, and - the front and rear support elements delimit an open space with the upper part, extending substantially over the entire length of that upper part from the area intended to support the heel to the area intended to support the toes of the user, - the upper part of the sole has an upper surface, on which the user's foot is intended to rest, and a lower surface, opposite the upper surface, intended to face the ground,
A remote wireless screen sharing method, executed by a source equipment, comprising: establishing a wireless screen sharing session with sink equipment, and acquiring capability information of the sink equipment; establishing a network connection with remote equipment, and acquiring capability information of the remote equipment and network information of the remote equipment; determining an intersection of display capabilities of the sink equipment and the remote equipment according to the capability information of the sink equipment, the capability information of the remote equipment and the network information of the remote equipment; and receiving a screen content of the sink equipment via the wireless screen sharing session, and sharing the screen content of the sink equipment to the remote equipment according to the determined intersection of the display capabilities. establishing a wireless screen sharing session with sink equipment, and acquiring capability information of the sink equipment; establishing a network connection with remote equipment, and acquiring capability information of the remote equipment and network information of the remote equipment; determining an intersection of display capabilities of the sink equipment and the remote equipment according to the capability information of the sink equipment, the capability information of the remote equipment and the network information of the remote equipment; and receiving a screen content of the sink equipment via the wireless screen sharing session, and sharing the screen content of the sink equipment to the remote equipment according to the determined intersection of the display capabilities.
A method performed by a gateway device, comprising: storing a session initiation protocol uniform resource identifier and/or international mobile subscriber identity of a device sending a short message service message; receiving the short message service message from the sending device; retrieving a session initiation protocol uniform resource identifier for a receiving device that is a recipient of the short message service message; delivering the short message service message to the receiving device using an international mobile subscriber identity of the receiving device, and routing information of the receiving device. wherein the receiving device does not have a mobile station international subscriber directory number, characterized by retrieving the session initiation protocol uniform resource identifier of the receiving device from a "to header" of the short message service message, and querying with the session initiation protocol uniform resource identifier retrieved from the "to header" a home subscription server of the receiving device for the international mobile subscriber identity of the receiving device and the routing information of the receiving device. storing a session initiation protocol uniform resource identifier and/or international mobile subscriber identity of a device sending a short message service message; receiving the short message service message from the sending device; retrieving a session initiation protocol uniform resource identifier for a receiving device that is a recipient of the short message service message; delivering the short message service message to the receiving device using an international mobile subscriber identity of the receiving device, and routing information of the receiving device. wherein the receiving device does not have a mobile station international subscriber directory number, characterized by retrieving the session initiation protocol uniform resource identifier of the receiving device from a "to header" of the short message service message, and querying with the session initiation protocol uniform resource identifier retrieved from the "to header" a home subscription server of the receiving device for the international mobile subscriber identity of the receiving device and the routing information of the receiving device.
A method for wireless power transmission comprising: generating, by a transmitter, radio frequency, RF, waves through an antenna connected to the transmitter, wherein the generating is at a plurality of different frequencies and comprises changing the phase on one or both frequencies to result in a unified waveform; defining, by the transmitter, a region of space to form a pocket of energy for charging or powering an electronic device that is within the region of space, the region of space being defined by a first wireless power range that includes a minimum range of distance and a maximum range of distance from the transmitter, wherein the region of space is a predetermined wireless charging spot; directing, by the transmitter, the RF waves to accumulate in the region of space in a form of constructive interference patterns, so that the unified waveform describes the pocket of energy and to form destructive interference patterns of the generated RF waves, so that the unified waveform describes null spaces within a second wireless power range that includes a minimum range of distance and a maximum range of distance, wherein the transmitter is configured to cause the unified waveform to form the null-spaces to surround the pocket of energy. generating, by a transmitter, radio frequency, RF, waves through an antenna connected to the transmitter, wherein the generating is at a plurality of different frequencies and comprises changing the phase on one or both frequencies to result in a unified waveform; defining, by the transmitter, a region of space to form a pocket of energy for charging or powering an electronic device that is within the region of space, the region of space being defined by a first wireless power range that includes a minimum range of distance and a maximum range of distance from the transmitter, wherein the region of space is a predetermined wireless charging spot; directing, by the transmitter, the RF waves to accumulate in the region of space in a form of constructive interference patterns, so that the unified waveform describes the pocket of energy and to form destructive interference patterns of the generated RF waves, so that the unified waveform describes null spaces within a second wireless power range that includes a minimum range of distance and a maximum range of distance, wherein the transmitter is configured to cause the unified waveform to form the null-spaces to surround the pocket of energy.
A leakage tightness testing system for checking a tightness of a test vessel having a test vessel internal volume (102,304) and a test vessel thermal inertia characteristic, said leakage tightness testing system comprising: an external reference vessel coupled in flow communication to said test vessel, said external reference vessel comprising an external reference vessel volume, said external reference vessel comprising an insulative material layer at least partially covering said external reference vessel, said insulative material layer configured to approximately match a thermal inertia characteristic of said external reference vessel to the thermal inertia characteristic of the test vessel; and a leakage testing device coupled in flow communication to said test vessel and said external reference vessel, said leakage testing device comprising a leakage sensor, wherein said external reference vessel is coupled in flow communication with a first inlet port of a differential pressure sensor, and said test vessel is coupled in flow communication with a second inlet port of the differential pressure sensor, characterized in that said test vessel comprises at least one pressure sensor and at least one temperature sensor (308,310); and said external reference vessel comprises at least one pressure sensor and at least one temperature sensor (318,320), wherein the at least one pressure sensor and the at least one temperature sensor of the test vessel, and the at least one pressure sensor and the at least one temperature sensor of the reference vessel are connected to the leakage testing device. an external reference vessel coupled in flow communication to said test vessel, said external reference vessel comprising an external reference vessel volume, said external reference vessel comprising an insulative material layer at least partially covering said external reference vessel, said insulative material layer configured to approximately match a thermal inertia characteristic of said external reference vessel to the thermal inertia characteristic of the test vessel; and a leakage testing device coupled in flow communication to said test vessel and said external reference vessel, said leakage testing device comprising a leakage sensor, wherein said external reference vessel is coupled in flow communication with a first inlet port of a differential pressure sensor, and said test vessel is coupled in flow communication with a second inlet port of the differential pressure sensor, characterized in that said test vessel comprises at least one pressure sensor and at least one temperature sensor (308,310); and said external reference vessel comprises at least one pressure sensor and at least one temperature sensor (318,320), wherein the at least one pressure sensor and the at least one temperature sensor of the test vessel, and the at least one pressure sensor and the at least one temperature sensor of the reference vessel are connected to the leakage testing device.
A stand-alone system for assessing wound exudate from a wound of a patient, said system comprising: a light source; a detector or sensor for detecting one or more physiological values of the wound exudate from the wound of the patient; a processor for comparing the one or more detected physiological values to one or more predetermined physiological values to obtain a comparison result in real time and for providing an electronic signal based on the comparison result; wherein the electronic signal corresponds to guidelines for treating the wound; and the stand-alone system is configured for attachment to an existing wound drainage line along an exterior of the wound drainage line; wherein the light source and the detector or sensor are arranged on an interior of a flexible substrate which is capable of attachment along an exterior of a wound drainage line to detect the one or more physiological values during passage of the exudate through the drainage line; and wherein the detector or sensor does not have direct contact with the wound exudate. a light source; a detector or sensor for detecting one or more physiological values of the wound exudate from the wound of the patient; a processor for comparing the one or more detected physiological values to one or more predetermined physiological values to obtain a comparison result in real time and for providing an electronic signal based on the comparison result; wherein the electronic signal corresponds to guidelines for treating the wound; and the stand-alone system is configured for attachment to an existing wound drainage line along an exterior of the wound drainage line; wherein the light source and the detector or sensor are arranged on an interior of a flexible substrate which is capable of attachment along an exterior of a wound drainage line to detect the one or more physiological values during passage of the exudate through the drainage line; and wherein the detector or sensor does not have direct contact with the wound exudate.
A compound of formula, wherein R 1 is C 1-6 alkyl; R 2 is halogen; R 3 is H, halogen or cyano; R 4 is (C 1-6 alkyl) 2 amino or heterocyclyl; R 5 is H, halogen or C 1-6 alkyl; R 6 is H, ((C 1-6 alkyl)zamino)C 1-6 alkyl, C 1-6 alkyl, C 3-7 cycloalkyl, haloC 1-6 alkyl, halogen, morpholinylC 1-6 alkyl or pyrrolidinylC 1-6 alkyl; R 7 is carboxy; or a pharmaceutically acceptable salt, or enantiomer or diastereomer thereof. R 1 is C 1-6 alkyl; R 2 is halogen; R 3 is H, halogen or cyano; R 4 is (C 1-6 alkyl) 2 amino or heterocyclyl; R 5 is H, halogen or C 1-6 alkyl; R 6 is H, ((C 1-6 alkyl)zamino)C 1-6 alkyl, C 1-6 alkyl, C 3-7 cycloalkyl, haloC 1-6 alkyl, halogen, morpholinylC 1-6 alkyl or pyrrolidinylC 1-6 alkyl; R 7 is carboxy; or a pharmaceutically acceptable salt, or enantiomer or diastereomer thereof.
A refrigerant system, comprising: a main refrigerant loop in communication with a condenser, an expansion device, an evaporator, and a compressor driven by a motor; a motor cooling line to convey a motor cooling fluid between the main refrigerant loop and the motor; and a sub-cooling line to convey a sub-cooling fluid between the main refrigerant loop and a sub-cooling heat exchanger, the sub-cooling heat exchanger in communication with the motor cooling line at a point upstream of the motor, characterized in that the motor cooling line includes a pump (P 1) upstream of the sub-cooling heat exchanger. a main refrigerant loop in communication with a condenser, an expansion device, an evaporator, and a compressor driven by a motor; a motor cooling line to convey a motor cooling fluid between the main refrigerant loop and the motor; and a sub-cooling line to convey a sub-cooling fluid between the main refrigerant loop and a sub-cooling heat exchanger, the sub-cooling heat exchanger in communication with the motor cooling line at a point upstream of the motor, characterized in that the motor cooling line includes a pump (P 1) upstream of the sub-cooling heat exchanger.