mhurhangee/ep-ind-claims huggingface dataset:
A transmitter (110, 200) comprising: an ultraviolet encoder conversion block (120, 220) that receives network data from a network interface (124, 210) to generate a conversion output, wherein the UV conversion block (120, 220) converts the network data to a modulated signal that drives a plurality of multi-spectrum sources to generate the conversion output; a wave front optical component (130, 230) to receive the conversion output from the UV encoder conversion block (120, 220) and generate an output beam, wherein the wave front optical component (130, 230) comprises a Negative Index of Refraction Material for refraction compensation to mitigate absorption and scattering of the output beam in a liquid medium; and an isotropic transmitter cluster (140, 240) to transmit the output beam received from the wave front optical component (130, 230) as photon energy in the liquid medium; wherein the isotropic transmitter cluster (140, 240) includes at least two transmitting nodes to facilitate transmission of the photon energy in a plurality of directions in the liquid medium. an ultraviolet encoder conversion block (120, 220) that receives network data from a network interface (124, 210) to generate a conversion output, wherein the UV conversion block (120, 220) converts the network data to a modulated signal that drives a plurality of multi-spectrum sources to generate the conversion output; a wave front optical component (130, 230) to receive the conversion output from the UV encoder conversion block (120, 220) and generate an output beam, wherein the wave front optical component (130, 230) comprises a Negative Index of Refraction Material for refraction compensation to mitigate absorption and scattering of the output beam in a liquid medium; and an isotropic transmitter cluster (140, 240) to transmit the output beam received from the wave front optical component (130, 230) as photon energy in the liquid medium; wherein the isotropic transmitter cluster (140, 240) includes at least two transmitting nodes to facilitate transmission of the photon energy in a plurality of directions in the liquid medium.
A dry suit having a set of zippered compression flaps (12, 14; 50, 52) comprising a left side compression flap and a right side compression flap, wherein a first side of each compression flap is fixed in a water proof manner to the dry suit and a second side of each compression flap has one of a male and female zipper portion so that when said male and said female zipper portions are drawn together, excess dry suit material and the dry suit dry zip ends can be gathered under the compression flaps (12, 14; 50, 52) the result being that when the compression flaps zippered together like a jacket shell a less bulky appearance is created and the wearer has additional mobility within the dry suit, characterized in that the first side of each compression flap (12, 14; 50, 52) is permanently fixed to the dry suit.
A computer-implemented method of adjusting zone associated risks of a coverage zone covered by at least a first and a second sensor of an autonomous driving vehicle operating in real-time, comprising: defining a performance limit detection window associated with the first sensor based on a mean time between failure (MTBF) lower limit of the first sensor and a MTBF upper limit of the first sensor, wherein the MTBF lower limit and the MTBF upper limit are obtained from an MTBF distribution curve of the first sensor; determining whether an operating time of the ADV operating in autonomous driving mode is within the performance limit detection window associated with the first sensor; and in response to determining that the operating time of the ADV operating in AD mode is within the performance limit detection window of the first sensor, adjusting a zone associated risk of the coverage zone to a performance risk of the second sensor. defining a performance limit detection window associated with the first sensor based on a mean time between failure (MTBF) lower limit of the first sensor and a MTBF upper limit of the first sensor, wherein the MTBF lower limit and the MTBF upper limit are obtained from an MTBF distribution curve of the first sensor; determining whether an operating time of the ADV operating in autonomous driving mode is within the performance limit detection window associated with the first sensor; and in response to determining that the operating time of the ADV operating in AD mode is within the performance limit detection window of the first sensor, adjusting a zone associated risk of the coverage zone to a performance risk of the second sensor.
A method for monitoring post-translational modifications of protein, the method comprising: providing a first microbead by binding a protein antibody to a surface of a base bead; providing a second microbead by binding a target protein having a first post-translational modification or a second post-translational modification, which are inversely proportional to each other, to the protein antibody of the first microbead, wherein the first post-translational modification is phosphorylated tau protein, and the second post-translational modification is O-glycosylated tau protein; providing a third microbead by binding the second microbead to a first post-translational modification antibody that selectively binds to the first post-translational modification of the target protein; providing a fourth microbead by binding the second microbead to a second post-translational modification antibody that selectively binds to the second post-translational modification of the target protein; and measuring impedances of the third microbead and the fourth microbead, respectively; obtaining a ratio of a first difference to a second difference, wherein the first difference is a difference between the impedances of the third microbead and a reference impedance, and the second difference is a difference between the impedances of the fourth microbead and the reference impedance; determining whether the first post-translational modification or the second post-translational modification is increased or decreased based on the ratio of the first difference to the second difference. providing a first microbead by binding a protein antibody to a surface of a base bead; providing a second microbead by binding a target protein having a first post-translational modification or a second post-translational modification, which are inversely proportional to each other, to the protein antibody of the first microbead, wherein the first post-translational modification is phosphorylated tau protein, and the second post-translational modification is O-glycosylated tau protein; providing a third microbead by binding the second microbead to a first post-translational modification antibody that selectively binds to the first post-translational modification of the target protein; providing a fourth microbead by binding the second microbead to a second post-translational modification antibody that selectively binds to the second post-translational modification of the target protein; and measuring impedances of the third microbead and the fourth microbead, respectively; obtaining a ratio of a first difference to a second difference, wherein the first difference is a difference between the impedances of the third microbead and a reference impedance, and the second difference is a difference between the impedances of the fourth microbead and the reference impedance; determining whether the first post-translational modification or the second post-translational modification is increased or decreased based on the ratio of the first difference to the second difference.
Electronic module having the following features: a housing, which has at least one first thermal line and at least one second thermal line, wherein the first thermal line runs at least partly along a first surface of the housing, in order to absorb thermal energy from a first external environment of the housing, wherein the second thermal line runs at least partly along a second surface of the housing, in order to absorb thermal energy from a second external environment that is thermally insulated from the first external environment; at least one electronic component; and at least one energy supply unit arranged in and/or on the housing, said energy supply unit being connected to the electronic component, in particular by means of at least one circuit, to the first thermal line and to the second thermal line and being configured to generate electrical energy using the thermal energy from the first external environment and the thermal energy from the second external environment, in order to operate the at least one electronic component. a housing, which has at least one first thermal line and at least one second thermal line, wherein the first thermal line runs at least partly along a first surface of the housing, in order to absorb thermal energy from a first external environment of the housing, wherein the second thermal line runs at least partly along a second surface of the housing, in order to absorb thermal energy from a second external environment that is thermally insulated from the first external environment; at least one electronic component; and at least one energy supply unit arranged in and/or on the housing, said energy supply unit being connected to the electronic component, in particular by means of at least one circuit, to the first thermal line and to the second thermal line and being configured to generate electrical energy using the thermal energy from the first external environment and the thermal energy from the second external environment, in order to operate the at least one electronic component.
An angled infusion set adapted to be secured to a skin surface, the angled infusion set comprising: a hub comprising: a body member having a first end and a second end and a bore extending from said first end to said second end; a needle or cannula disposed in said bore such that a distal end of said needle or cannula extends beyond said first end of said body member and an elongated slot is formed in a lower surface of the body member extending rearwardly from the first end, said elongated slot opening into said bore, said needle or cannula being disposed in said slot, characterised in that the body member further comprises a rounded protrusion surrounding said elongated slot so when the needle is bent in any direction, the needle bends around the rounded protrusion, thereby allowing more bend cycles of the needle before it fractures because the stress in the needle is reduced by the increased bend radius provided by the rounded protrusion. a hub comprising: a body member having a first end and a second end and a bore extending from said first end to said second end; a needle or cannula disposed in said bore such that a distal end of said needle or cannula extends beyond said first end of said body member and an elongated slot is formed in a lower surface of the body member extending rearwardly from the first end, said elongated slot opening into said bore, said a body member having a first end and a second end and a bore extending from said first end to said second end; a needle or cannula disposed in said bore such that a distal end of said needle or cannula extends beyond said first end of said body member and an elongated slot is formed in a lower surface of the body member extending rearwardly from the first end, said elongated slot opening into said bore, said needle or cannula being disposed in said slot, characterised in that the body member further comprises a rounded protrusion surrounding said elongated slot so when the needle is bent in any direction, the needle bends around the rounded protrusion, thereby allowing more bend cycles of the needle before it fractures because the stress in the needle is reduced by the increased bend radius provided by the rounded protrusion.
Method for the management and control of a heat pump based on a compression/expansion thermodynamic cycle of an operating fluid and comprising at least: - a first heat exchanger (11; 12) wherein said operating fluid absorbs, at constant pressure, heat energy from a cold well, - a second heat exchanger (12; 11) wherein said operating fluid yields, at constant pressure, part of its heat energy to a hot well, - an expansion valve placed between said first (11; 12) and second (12; 11) heat exchanger and adapted to carry out a constant enthalpy expansion and cooling of said operating fluid, - a compressor (13; C) adapted to compress said operating fluid between a minimum pressure thereof that it has at the outlet of said first heat exchanger (11; 12) and a maximum pressure thereof that it has at the inlet of said second heat exchanger (12; 11), said compressor (13; C) being able to suck and compress a wet operating fluid with a suitable percentage of liquid fraction, - at least one temperature sensor (T.com) for the detection of the delivery temperature Tm of said compressor (13; C), - at least one temperature sensor (T.evap) for the detection of an evaporation temperature SST in said first exchanger (11; 12), - at least one temperature sensor (T.cond) for detecting a condensation temperature SDT in said second exchanger (12; 11), characterised in that the temperature difference between the lubricating oil in the compressor (13; C) and said operating fluid at the delivery of the same compressor (13; C) is kept equal to or greater than a safety threshold OIL_SH such that there is no condensation of said operating fluid in said lubricating oil, i.e. such that the following relationship is verified: Toil - Tm ≥ OIL_SH. - a first heat exchanger (11; 12) wherein said operating fluid absorbs, at constant pressure, heat energy from a cold well, - a second heat exchanger (12; 11) wherein said operating fluid yields, at constant pressure, part of its heat energy to a hot well, - an expansion valve placed between said first (11; 12) and second (12; 11) heat exchanger and adapted to carry out a constant enthalpy expansion and cooling of said operating fluid, - a compressor (13; C) adapted to compress said operating fluid between a minimum pressure thereof that it has at the outlet of said first heat exchanger (11; 12) and a maximum pressure thereof that it has at the inlet of said second heat exchanger (12; 11), said compressor (13; C) being able to suck and compress a wet operating fluid with a suitable percentage of liquid fraction, - at least one temperature sensor (T.com) for the detection of the delivery temperature Tm of said compressor (13; C), - at least one temperature sensor (T.evap) for the detection of an evaporation temperature SST in said first exchanger (11; 12), - at least one temperature sensor (T.cond) for detecting a condensation temperature SDT in said second exchanger (12; 11),
A method for transmitting information on an uplink, UL, shared channel within a cell of a radio access network, RAN, the method comprising: receiving, from a network node serving the cell, a configured uplink grant of resources for transmitting information on the UL shared channel, wherein the configured uplink grant indicates particular timeslots during which transmission on the UL shared channel is allowed and includes: a periodicity parameter indicating an uplink periodicity for configured resources, and an allowance parameter indicating a number of consecutive timeslots, within each period identified by the periodicity parameter, during which transmission on the UL shared channel is allowed; and transmitting information on the UL shared channel during at least one of the particular timeslots indicated by the received configured uplink grant. receiving, from a network node serving the cell, a configured uplink grant of resources for transmitting information on the UL shared channel, wherein the configured uplink grant indicates particular timeslots during which transmission on the UL shared channel is allowed and includes: a periodicity parameter indicating an uplink periodicity for configured resources, and an allowance parameter indicating a number of consecutive timeslots, within each period identified by the periodicity parameter, during which transmission on the UL shared channel is allowed; and a periodicity parameter indicating an uplink periodicity for configured resources, and an allowance parameter indicating a number of consecutive timeslots, within each period identified by the periodicity parameter, during which transmission on the UL shared channel is allowed; and transmitting information on the UL shared channel during at least one of the particular timeslots indicated by the received configured uplink grant.
A lead frame, comprising a plurality of frame units disposed in parallel in a first direction, wherein the frame unit comprises a hollow bezel, and a plurality of pins and connecting ribs that are disposed in the bezel; each pin comprises a first pin part (Pa) and a second pin part (Pb) that extend in a second direction and that are integrally formed, the first pin part (Pa) is disposed in the bezel, the first pin part (Pa) is configured to be electrically connected to a circuit board, the second pin part (Pb) is connected and fastened to the bezel, and the second direction is perpendicular to the first direction; and the connecting ribs are connected among the plurality of pins and the bezel; and the first pin part (Pa) comprises: a boss (Pt), the boss (Pt) is connected to the first pin part (Pa) in a direction perpendicular to an extension direction of the first pin part (Pa), and corresponding to a position of the boss (Pt), the first pin part (Pa) further comprises a recessed part (Pg) recessed in the third direction, wherein the recessed part (Pg) comprises a second penetration hole, the second penetration hole penetrates through the recessed part (Pg) in the third direction; the recessed part (Pg) and the second penetration hole are configured to accommodate the plastic packaging material, and the third direction is perpendicular to a plane on which the first direction and the second direction are located. a boss (Pt), the boss (Pt) is connected to the first pin part (Pa) in a direction perpendicular to an extension direction of the first pin part (Pa), and corresponding to a position of the boss (Pt), the first pin part (Pa) further comprises a recessed part (Pg) recessed in the third direction, wherein the recessed part (Pg) comprises a second penetration hole, the second penetration hole penetrates through the recessed part (Pg) in the third direction; the recessed part (Pg) and the second penetration hole are configured to accommodate the plastic packaging material, and the third direction is perpendicular to a plane on which the first direction and the second direction are located.
A uterine cervix adhesion prevention device, the device comprising: a hollow drainage tube configured for being inserted into a uterocervical canal; a support cap connected to one end of the hollow drainage tube and configured to extend over a uterus entrance; and at least one fixing leg connected to an opposite end of the hollow drainage tube and configured for being unfolded in the uterus to position the hollow drainage tube, wherein an insertion hole is formed at a position where an outer diameter of one end of the hollow drainage tube and the support cap are connected to each other, thereby allowing a supporting tube outer holder to be inserted along an outer diameter portion of the hollow drainage tube. a hollow drainage tube configured for being inserted into a uterocervical canal; a support cap connected to one end of the hollow drainage tube and configured to extend over a uterus entrance; and at least one fixing leg connected to an opposite end of the hollow drainage tube and configured for being unfolded in the uterus to position the hollow drainage tube, wherein an insertion hole is formed at a position where an outer diameter of one end of the hollow drainage tube and the support cap are connected to each other, thereby allowing a supporting tube outer holder to be inserted along an outer diameter portion of the hollow drainage tube.
A case of wrist-worn portable devices comprising a first compartment delimiting a first volume suitable for receiving a first device, said first compartment being delimited by at least one peripheral wall at a first opening in said case, said case comprising a second compartment delimiting a second volume and being able to be fixed removably to a mounting plate of said case extending along or parallel to a plane forming an obtuse angle (β) with a median plane of extension of the first compartment, said plate comprising an opening of a shape complementary to at least part of the second compartment, said opening and said plate forming a seat for wedging the second compartment with respect to the first compartment.
Method for energy saving in the course of providing a heated liquid for human consumption while controlling and complying with the limit values admissible, recommended or acceptable for microorganisms, wherein a piping system is used which, with the exception of a temporary feeding, withdrawal or maintenance operation, is closed and comprises a circulation piping with a circulation means and at least one point each for feeding liquid into and for withdrawal of liquid from the system, a single ultrafiltration unit for the mechanical separation of microorganisms, and a bypass conduit in the course of which the single ultrafiltration unit and a conveyance means are arranged, as well as a device for heating through which the circulation piping runs for heating the liquid guided therein, and wherein the set temperature for the heating device is adjusted to a value between 40 and 55°C, wherein the control and compliance of the limit values is performed by at least partially and at least temporally directing the liquid being guided in the circulation piping to the ultrafiltration unit arranged in the bypass conduit.