mhurhangee/ep-ind-claims huggingface dataset:
A method of setting a data transmission and reception period for communication with a second terminal in a first terminal, characterized by the method comprising: determining an average margin threshold for data communication with the second terminal, based on a maximum margin threshold and a minimum margin threshold, wherein the maximum margin threshold is a maximum data rate capability used to transmit data, and the minimum margin threshold is a minimum data rate capability used to transmit data, during the data communication; determining a data rate for the data communication with the second terminal, based on an amount of data output from a transmission buffer of the first terminal; setting an active period and an idle period based on a ratio of the average margin threshold to the data rate; and synchronizing the active period and the idle period with the second terminal. determining an average margin threshold for data communication with the second terminal, based on a maximum margin threshold and a minimum margin threshold, wherein the maximum margin threshold is a maximum data rate capability used to transmit data, and the minimum margin threshold is a minimum data rate capability used to transmit data, during the data communication; determining a data rate for the data communication with the second terminal, based on an amount of data output from a transmission buffer of the first terminal; setting an active period and an idle period based on a ratio of the average margin threshold to the data rate; and synchronizing the active period and the idle period with the second terminal.
An HIV detection kit, for detecting a short RNA produced by HIV-infected cells, comprising: a primer for HIV detection which is an oligonucleotide consisting of the base sequence set forth in SEQ ID NO. 5. a primer for HIV detection which is an oligonucleotide consisting of the base sequence set forth in SEQ ID NO. 5.
An apparatus, comprising: - an input to receive an aerosol sample flow, - a modifier unit to provide a modified sample flow by removing particles of the aerosol sample flow, and - a sensor unit to detect molecules of the gas phase of the modified sample flow, wherein the modifier unit is arranged to generate a corona discharge with a corona electrode (ELEC1), to form charged particles by charging particles of the aerosol sample flow with the corona discharge, to generate chemically active species (O3, NOX) with the corona discharge, and to provide the modified sample flow by mixing the chemically active species (O 3, NOx) with the aerosol sample flow and by removing the charged particles with an electric field, the particle removal efficiency (EFF(d)) of the modifier unit has a cutoff size (D CUT) to prevent propagation of particles larger than the cutoff size (d CUT) to the sensor unit, wherein the modifier unit comprises a counter-electrode (ELEC2) for generating the electric field, the modifier unit is arranged to form the modified sample flow and a second partial flow from the aerosol sample flow by deflecting the charged particles with the electric field from the modified sample flow to the second partial flow, and wherein the modifier unit comprises a flow divider to separate the modified sample flow from the second partial flow and also from the deflected particles carried in the second partial flow, characterized in that the sensor unit is arranged to measure a spectral profile by detecting molecules of the gas phase of the modified sample flow, wherein the spectral profile is a mobility spectrum or a mass spectrometer spectrum, wherein the modifier unit is arranged to generate the chemically active species (O 3, NO x) by guiding at least a part of the aerosol sample flow via the corona discharge. - an input to receive an aerosol sample flow, - a modifier unit to provide a modified sample flow by removing particles of the aerosol sample flow, and - a sensor unit to detect molecules of the gas phase of the modified sample flow,
Filling machine for a filling operation with liquids, in particular drinks and/or foodstuffs, comprising at least two product storage containers (111, 112) for a filling liquid respectively, and comprising a filling station, preferably a plurality of uniformly distributed filling stations for filling containers, each filling station having a filling pipe bundle of at least two filling pipes spaced apart from one another by a distance (d), and the filling pipes in the filling pipe bundle of a filling station are disposed so that the position of the container relative to the filling station can be maintained in the horizontal direction during the filling operation, characterised in that every filling station co-operates with a rotator which is able to rotate about an axis parallel with and spaced apart from the axis of symmetry of the container to be filled, and the rotator is configured to position individual filling pipes of the filling pipe bundle alternately above an opening of the container to be filled.
A composite composition comprising: a matrix material; and a plurality of carbon nanotube -infused fibers dispersed in the matrix material, wherein the CNT-infused fibers comprise a fiber material and carbon nanotubes that are grown on the fiber material; wherein the amount of carbon nanotubes in the composite composition is in a range between 0.1% percent by weight to 60 percent by weight of the composite; and wherein any combination of CNT length, CNT density, and CNT alignment differs within the matrix material in a first and a second layer of the composite composition to provide an enhancement in at least one property selected from the group consisting of mechanical, thermal, and electrical properties in each layer. a matrix material; and a plurality of carbon nanotube -infused fibers dispersed in the matrix material, wherein the CNT-infused fibers comprise a fiber material and carbon nanotubes that are grown on the fiber material; wherein the amount of carbon nanotubes in the composite composition is in a range between 0.1% percent by weight to 60 percent by weight of the composite; and wherein any combination of CNT length, CNT density, and CNT alignment differs within the matrix material in a first and a second layer of the composite composition to provide an enhancement in at least one property selected from the group consisting of mechanical, thermal, and electrical properties in each layer.
A clamp (2; 2.1; 2.2; 2.3) for fastening tubes to a substrate, comprising - an apex portion having a proximal end and a distal end and forming an apex, - two clamp sections (14, 16) connected by the apex portion, wherein the apex portion has first and second end faces (18, 20), wherein the clamp has a frontal plane FE and a median plane ME and the two clamp sections are on different sides of the median plane, wherein the apex portion defines a central axis ZA which lies in the median plane ME and extends from the proximal end to the distal end, wherein the clamp has at least one or more connecting element(s) that is/are firmly bonded to the apex portion and by means of which the clamp can be detachably connected, is detachably connected or has been detachably connected to a further, in particular similar, clamp (2.2) that adjoins the first face, wherein the fastener(s) define(s) a fastener area of the clamp in the central axis direction, wherein the clamp has a compensating area extending in the central axis direction between the fastener area and the apex, wherein the clamp has a compensating element on the first face, which is designed to counteract an angular offset of the clamp in relation to the further clamp (2.2) caused by the connecting element, wherein a compensating element is arranged in the compensating area, characterized in that the connecting element(s) comprise(s) molten and re-solidified areas of the clamp and is/are a locally welded and deformed zone of the apex portion. J 2 - an apex portion having a proximal end and a distal end and forming an apex, - two clamp sections (14, 16) connected by the apex portion, wherein the apex portion has first and second end faces (18, 20), wherein the clamp has a frontal plane FE and a median plane ME and the two clamp sections are on different sides of the median plane, wherein the apex portion defines a central axis ZA which lies in the median plane ME and extends from the proximal end to the distal end, wherein the clamp has at least one or more connecting element(s) that is/are firmly bonded to the apex portion and by means of which the clamp can be detachably connected, is detachably connected or has been detachably connected to a further, in particular similar, clamp (2.2) that adjoins the first face, wherein the fastener(s) define(s) a fastener area of the clamp in the central axis direction, wherein the clamp has a compensating area extending in the central axis direction between the fastener area and the apex, wherein the clamp has a compensating element on the first face, which is designed to counteract an angular offset of the clamp in relation to the further clamp (2.2) caused by the connecting element, wherein a compensating element is arranged in the compensating area, characterized in that the connecting element(s) comprise(s) molten and re-solidified areas of the clamp and is/are a locally welded and deformed zone of the apex portion. J 2
A three-dimensional memory device, comprising: a substrate (202, 302); a memory stack comprising a plurality of interleaved conductor layers and dielectric layers on the substrate (202, 302); and a memory string extending vertically through the memory stack and comprising: a semiconductor plug in a lower portion of the memory string; a protective dielectric layer on the semiconductor plug; and a memory film above the protective dielectric layer and along a sidewall of the memory string, wherein the memory film comprises a blocking layer, a storage layer, and a tunneling layer, wherein the protective dielectric layer is not disposed along the sidewall of the memory string, wherein a thickness of the protective dielectric layer is between 1 nm and 5 nm, characterised in that the protective dielectric layer includes a high-k dielectric. a substrate (202, 302); a memory stack comprising a plurality of interleaved conductor layers and dielectric layers on the substrate (202, 302); and a memory string extending vertically through the memory stack and comprising: a semiconductor plug in a lower portion of the memory string; a protective dielectric layer on the semiconductor plug; and a memory film above the protective dielectric layer and along a sidewall of the memory string, a semiconductor plug in a lower portion of the memory string; a protective dielectric layer on the semiconductor plug; and a memory film above the protective dielectric layer and along a sidewall of the memory string, wherein the memory film comprises a blocking layer, a storage layer, and a tunneling layer, wherein the protective dielectric layer is not disposed along the sidewall of the memory string, wherein a thickness of the protective dielectric layer is between 1 nm and 5 nm, characterised in that the protective dielectric layer includes a high-k dielectric.
A connection assembly for connecting a spinal implant to an anchor, the connection assembly comprising: a housing member having a first end and a second end, the housing member having an aperture proximate the first end for receiving a portion of a spinal implant and a channel extending from the second end towards the first end, the channel is in fluid connection with the aperture and oriented generally transversely to the aperture; a receiving member having a first end and a second end, the receiving member having an aperture for receiving a portion of an anchor, an interference member having a first end and a second end, characterized in that the assembly further comprises a connection member having a first end and a second end, the connection member having a lumen, the lumen is in fluid communication with the aperture of the housing member and oriented generally transversely to the aperture of the housing member, the second end of the connection member is received in the channel of the housing member so that the connection member is rotatably and translatably connected to the housing member; a resilient leg for contacting an anchor, and a channel extending from the second end to the first end, the channel receives a first end of the connection member; and in that the interference member is received in the lumen and translatable in the lumen, the first end of the interference member having a resilient leg contacting surface. a housing member having a first end and a second end, the housing member having an aperture proximate the first end for receiving a portion of a spinal implant and a channel extending from the second end towards the first end, the channel is in fluid connection with the aperture and oriented generally transversely to the aperture; a receiving member having a first end and a second end, the receiving member having an aperture for receiving a portion of an anchor, an interference member having a first end and a second end, characterized in that the assembly further comprises a connection member having a first end and a second end, the connection member having a lumen, the lumen is in fluid communication with the aperture of the housing member and oriented generally transversely to the aperture of the housing member, the second end of the connection member is received in the channel of the housing member so that the connection member is rotatably and translatably connected to the housing member; a resilient leg for contacting an anchor, and a channel extending from the second end to the first end, the channel receives a first end of the connection member; and in that the interference member is received in the lumen and translatable in the lumen, the first end of the interference member having a resilient leg contacting surface.
An isolated CD4 + Treg cell population, wherein the Treg population consists of cells having signatures for i) identifying that the T-cells are CD4 + regulatory Tcells, ii) identifying that the Treg cells are mucosal tissue type tropic, i.e they can migrate to the diseased mucosal tissue, iii) optionally identifying that the Treg cells are tropic with respect to the diseased mucosal tissue, i.e. they are homing cells, iv) identifying that the Treg cells are mucosal emigrant cells, i.e. they originate from the target mucosal tissue, and v) optionally identifying that the Treg cells are retained in the target mucosal tissue, and optionally one or more X-signatures and/or one or more Y-signatures and one or more Z-signatures, wherein X is a signature indicating that the CD4 + Tregs can localize, has emigrated from, or is marked for preferential retention in the specific part of the gastrointestinal tract that is diseased, and where Y is the signature indicating that the Tregs can localize to any mucosal surface, and Z indicates regulatory function, or indicates restriction of inflammatory function, and wherein the isolated CD4 + Treg cell population has T-cell receptor clonal diversity restricted to clonotypes specific for antigens present in the mucosal tissue types to which the selected signatures relate. i) identifying that the T-cells are CD4 + regulatory Tcells, ii) identifying that the Treg cells are mucosal tissue type tropic, i.e they can migrate to the diseased mucosal tissue, iii) optionally identifying that the Treg cells are tropic with respect to the diseased mucosal tissue, i.e. they are homing cells, iv) identifying that the Treg cells are mucosal emigrant cells, i.e. they originate from the target mucosal tissue, and v) optionally identifying that the Treg cells are retained in the target mucosal tissue,
A photovoltaic device which is a tandem junction photovoltaic device or a multi junction photovoltaic device, wherein the device comprises a photoactive region which comprises: an n-type region comprising at least one n-type layer; a p-type region comprising at least one p-type layer; and, disposed between the n-type region and the p-type region: a layer of a perovskite semiconductor without open porosity. an n-type region comprising at least one n-type layer; a p-type region comprising at least one p-type layer; and, disposed between the n-type region and the p-type region: a layer of a perovskite semiconductor without open porosity.
A microcatheter comprising: an elongated tubular jacket having a first thickness; and an inner tubular liner having a second thickness and being disposed within said elongated tubular jacket; wherein said elongated tubular jacket has an outer diameter of about 0.6 mm (.025 inches); wherein the ratio between said first thickness and said second thickness is greater than 70%; characterized in that said elongated tubular jacket is composed of a plurality of jacket segments including a first jacket segment and an adjacent jacket segment, wherein an end of the first jacket segment is positioned within and bonded to an end of the adjacent jacket segment, and wherein at least one of said end of said first jacket segment and said end of said adjacent jacket segment is biased or angled. an elongated tubular jacket having a first thickness; and an inner tubular liner having a second thickness and being disposed within said elongated tubular jacket; wherein said elongated tubular jacket has an outer diameter of about 0.6 mm (.025 inches); wherein the ratio between said first thickness and said second thickness is greater than 70%; characterized in that said elongated tubular jacket is composed of a plurality of jacket segments including a first jacket segment and an adjacent jacket segment, wherein an end of the first jacket segment is positioned within and bonded to an end of the adjacent jacket segment, and wherein at least one of said end of said first jacket segment and said end of said adjacent jacket segment is biased or angled.
A method for repair comprising the following steps: placing a damaged component within a shaped cavity, wherein the shaped cavity comprises a mold configured to reconstruct the shape of the damaged component; applying a repair material within the shaped cavity; applying heat to the shaped cavity to repair the damaged component; characterised in that the repair material comprises a parent material and an additive material, wherein the parent material is the same material as the damaged component and the additive material lowers the melting temperature of the parent material; and by applying heat to the shaped cavity such that the additive material in the repair material diffuses into the shaped cavity, while the parent material in the repair material bonds metalurgically to the damaged component. placing a damaged component within a shaped cavity, wherein the shaped cavity comprises a mold configured to reconstruct the shape of the damaged component; applying a repair material within the shaped cavity; applying heat to the shaped cavity to repair the damaged component; characterised in that the repair material comprises a parent material and an additive material, wherein the parent material is the same material as the damaged component and the additive material lowers the melting temperature of the parent material; and by applying heat to the shaped cavity such that the additive material in the repair material diffuses into the shaped cavity, while the parent material in the repair material bonds metalurgically to the damaged component.
An analyte meter comprising: an strip port opening configured for receiving a test strip, the strip port opening extending to a strip port connector configured to electrically connect to electrodes disposed on the test strip when the test strip is inserted into the strip port opening, said strip port connector comprising: a first contact for detecting a digital strip-detect signal when the test strip is inserted into the strip port opening; and a second contact for detecting a digital sample-detect signal when a sample is applied to the inserted test strip; a display; and a control circuit electrically connected to the first and second contacts, the control circuit being configured to maintain the analyte meter in a low power mode in the absence of detecting both the digital strip-detect signal and the digital sample-detect signal, and the control circuit, when detecting the digital strip-detect signal but not the digital sample-detect signal such that a blood sample has not been applied to the test strip, being configured to perform a self test sequence, and display a message on the display, and whereupon the analyte meter reverts to a low power mode, and wherein the control circuit is configured to place the analyte meter in an active mode, thereby activating an analyte current measuring circuit in response to detecting both the digital sample-detect signal and the digital strip-detect signal. a first contact for detecting a digital strip-detect signal when the test strip is inserted into the strip port opening; and a second contact for detecting a digital sample-detect signal when a sample is applied to the inserted test strip; a display; and a control circuit electrically connected to the first and second contacts, the control circuit being configured to maintain the analyte meter in a low power mode in the absence of detecting both the digital strip-detect signal and the digital sample-detect signal, and the control circuit, when detecting the digital strip-detect signal but not the digital sample-detect signal such that a blood sample has not been applied to the test strip, being configured to perform a self test sequence, and display a message on the display, and whereupon the analyte meter reverts to a low power mode, and wherein the control circuit is configured to place the analyte meter in an active mode, thereby activating an analyte current measuring circuit in response to detecting both the digital sample-detect signal and the digital strip-detect signal.