mhurhangee/ep-ind-claims huggingface dataset:
A catheter which is operable between a collapsed configuration for storage and transportation and an expanded configuration for draining fluid from a body via a conduit which extends axially in a longitudinal direction from a proximal end to an opposite distal end, the catheter comprising: - a proximal section, adapted to be fully inserted into a urinary channel of the body and forming a proximal part of the conduit which part extends axially between the proximal end and a first transition end of the proximal section, and - a distal section, adapted to be at least partially inserted into the urinary channel and forming a distal part of the conduit which part extends axially between a second transition end of the distal section and the distal end, the first transition end of the proximal section being dimensioned to enable its positioning inside a receiving portion of the distal part of the conduit to enable axial movement of the sections relative to each other to operate the catheter between the collapsed configuration and the expanded configuration of the catheter, wherein the sections (1, 2) comprise cooperating coupling structures to support the catheter in the expanded configuration, and the proximal section forms a first outer surface with a circumference which increases from the proximal end towards the first transition end and the distal section forms a second inner surface with a circumference which decreases from the distal end towards the second transition end, the outer circumference of the transition end of the proximal section is larger than the inner circumference of the transition end of the distal section. - a proximal section, adapted to be fully inserted into a urinary channel of the body and forming a proximal part of the conduit which part extends axially between the proximal end and a first transition end of the proximal section, and - a distal section, adapted to be at least partially inserted into the urinary channel and forming a distal part of the conduit which part extends axially between a second transition end of the distal section and the distal end,
A multiband antenna comprising: at least two radiation elements; high frequency power supply units configured to supply high frequency signals to the respective radiation elements; a low frequency power supply unit (46, 56, 66) configured to supply a low frequency signal (SL1, SL2); and high frequency signal blocking circuits configured to block transmission of the high frequency signals; wherein the respective radiation elements are configured to radiate the high frequency signals, characterized by passive elements that are provided opposing the respective radiation elements; passive element connection lines (44, 54) that connect the passive elements in series to form a series passive element (43, 53); wherein the low frequency power supply unit (46, 56, 66) is connected to one end side of the series passive element (43, 53) via a low frequency power supply line (45, 55, 65), wherein the high frequency signal blocking circuits are connected to the passive element connection lines (44, 54) and the low frequency power supply line (45, 55, 65), and wherein the series passive element (43,53) is configured to radiate the low frequency signal (SL1, SL2). at least two radiation elements; high frequency power supply units configured to supply high frequency signals to the respective radiation elements; a low frequency power supply unit (46, 56, 66) configured to supply a low frequency signal (SL1, SL2); and high frequency signal blocking circuits configured to block transmission of the high frequency signals; wherein the respective radiation elements are configured to radiate the high frequency signals, characterized by passive elements that are provided opposing the respective radiation elements; passive element connection lines (44, 54) that connect the passive elements in series to form a series passive element (43, 53); wherein the low frequency power supply unit (46, 56, 66) is connected to one end side of the series passive element (43, 53) via a low frequency power supply line (45, 55, 65), wherein the high frequency signal blocking circuits are connected to the passive element connection lines (44, 54) and the low frequency power supply line (45, 55, 65), and wherein the series passive element (43,53) is configured to radiate the low frequency signal (SL1, SL2).
A method for identifying candidate compounds that reprogram binding of a histone mark reader protein to a non-cognate target histone tail mark, the method comprising: (a) computationally generating a structural model of the active site of the reader protein in complex with the non-cognate target histone tail mark, the structural model based on a computational model of the active site of the reader protein complexed with its cognate histone tail mark; (b) generating a probe structure that provides the functional features required for forming a stable triple reprogramming complex with the non-cognate target histone tail mark and the active site of the reader protein; and (c) screening candidate compounds to identify those that together with the residues in the active site and the non-cognate target histone tail mark, substantially reproduce the functional features of the probe structure identified in step (b), and optionally (d) testing the candidate compounds identified in step (c) in one or more in vitro assays to assess modulation of binding of the reader protein to the non-cognate target histone tail mark. (a) computationally generating a structural model of the active site of the reader protein in complex with the non-cognate target histone tail mark, the structural model based on a computational model of the active site of the reader protein complexed with its cognate histone tail mark; (b) generating a probe structure that provides the functional features required for forming a stable triple reprogramming complex with the non-cognate target histone tail mark and the active site of the reader protein; and (c) screening candidate compounds to identify those that together with the residues in the active site and the non-cognate target histone tail mark, substantially reproduce the functional features of the probe structure identified in step (b), and optionally (d) testing the candidate compounds identified in step (c) in one or more in vitro assays to assess modulation of binding of the reader protein to the non-cognate target histone tail mark.
Method of regenerating a filter element for use in a gas purification device, the method comprising: providing the filter element, wherein the filter element comprises a substrate and a filter layer covering an exterior surface of the substrate, wherein the substrate comprises material for containing chemicals effective to remove gas pollutants from a gas, wherein the material of the filter layer is hydrophilic to adsorb liquid solution adsorbents effective in removing said gas pollutants from said gas, and wherein the exterior surface of the substrate covered by the filter layer is hydrophobic so as not to absorb liquid; contacting said filter layer with said liquid solution adsorbents; flowing said gas through the filter element thereby causing said gas pollutants to be removed from said gas; and regenerating the filter element by contacting said filter layer with further liquid solution adsorbents. providing the filter element, wherein the filter element comprises a substrate and a filter layer covering an exterior surface of the substrate, wherein the substrate comprises material for containing chemicals effective to remove gas pollutants from a gas, wherein the material of the filter layer is hydrophilic to adsorb liquid solution adsorbents effective in removing said gas pollutants from said gas, and wherein the exterior surface of the substrate covered by the filter layer is hydrophobic so as not to absorb liquid; contacting said filter layer with said liquid solution adsorbents; flowing said gas through the filter element thereby causing said gas pollutants to be removed from said gas; and regenerating the filter element by contacting said filter layer with further liquid solution adsorbents.
A deforming device for at least partially deforming a blank into a packaging element, said deforming device comprising a feeding device by means of which, in use, a blank is fed to a surface of the deforming device that is provided with a passage, a punch having a punching side that engages a blank in use, which punch moves to and fro through the passage in use, being driven by a driving device between a first position on one side of the passage, in which position a blank can be passed between the punch and the surface, and a second position, in which the punch is at least partially located on the opposite side of the passage, and a discharging device for discharging a blank deformed in this manner, characterised in that the punch has at least one edge punching surface at each of two opposite circumferential edges on the punching side, between which edge punching surfaces at least one further punching surface extending substantially parallel to the edge punching surfaces, spaced therefrom, is located, and in that the deforming device comprises resistance means which impart resistance against the punch movement in use to parts of the blank present at least between the edge punching surfaces and the further punching surface upon movement of the punch from the first to the second position.
An antenna device comprising: a printed circuit board, PCB, provided with a first conductive pattern on a layer of the PCB; a first radiator formed by a portion of the first conductive pattern; a slot formed in the first radiator; a second radiator comprising: a first portion disposed inside the slot, and a second portion disposed outside the slot; a carrier disposed facing the PCB and provided with a second conductive pattern; and a feeder configured to provide a common electrical feed to the first radiator and the second radiator, wherein another portion of the first conductive pattern is disposed in the slot such that said other portion of the first conductive pattern forms the first portion of the second radiator, and wherein the second conductive pattern is electrically connected to said other portion of the first conductive pattern such that the second conductive pattern forms the second portion of the second radiator. a printed circuit board, PCB, provided with a first conductive pattern on a layer of the PCB; a first radiator formed by a portion of the first conductive pattern; a slot formed in the first radiator; a second radiator comprising: a first portion disposed inside the slot, and a second portion disposed outside the slot; a first portion disposed inside the slot, and a second portion disposed outside the slot; a carrier disposed facing the PCB and provided with a second conductive pattern; and a feeder configured to provide a common electrical feed to the first radiator and the second radiator, wherein another portion of the first conductive pattern is disposed in the slot such that said other portion of the first conductive pattern forms the first portion of the second radiator, and wherein the second conductive pattern is electrically connected to said other portion of the first conductive pattern such that the second conductive pattern forms the second portion of the second radiator.
An air sampling device for sampling air, comprising: a housing body having a top, a side, and an opening at the top; a retaining assembly configured to retain a sampling device, the retaining assembly located at the top of the housing body about the opening; a plenum having a top end, a bottom end, and a longitudinal length defined therebetween, the top end being coupled to the housing body about the opening such that the plenum is in flow communication with the opening, wherein the bottom end of the plenum is open, the plenum being configured for receiving air flow generally from the top end to the bottom end generally along the longitudinal length; a flow connection coupled to the bottom end of the plenum; a mass flow meter having an input and an output, the input being coupled to the flow connection, the mass flow meter being in flow communication with the plenum via the flow connection; and a blower in association with the plenum and configured to draw air past the sampling device, through the opening, through the plenum, and through the open bottom end of the plenum, such that a measuring portion of the air in the plenum flows through the flow connection and through the mass flow meter, wherein the mass flow meter is configured to measure the flow rate of the measuring portion of the air drawn through the flow connection. a housing body having a top, a side, and an opening at the top; a retaining assembly configured to retain a sampling device, the retaining assembly located at the top of the housing body about the opening; a plenum having a top end, a bottom end, and a longitudinal length defined therebetween, the top end being coupled to the housing body about the opening such that the plenum is in flow communication with the opening, wherein the bottom end of the plenum is open, the plenum being configured for receiving air flow generally from the top end to the bottom end generally along the longitudinal length; a flow connection coupled to the bottom end of the plenum; a mass flow meter having an input and an output, the input being coupled to the flow connection, the mass flow meter being in flow communication with the plenum via the flow connection; and a blower in association with the plenum and configured to draw air past the sampling device, through the opening, through the plenum, and through the open bottom end of the plenum, such that a measuring portion of the air in the plenum flows through the flow connection and through the mass flow meter, wherein the mass flow meter is configured to measure the flow rate of the measuring portion of the air drawn through the flow connection.
Arrangement for electrically conductively connecting of an electrical component, which is arranged in a housing containing oil, to an electrical unit,inwhichbetweenthe component and the unit atleasttwo conductors (4,5) are mounted, which consist of an electrical core and an insulation surrounding the same, in which the ho using has an opening which in the position of use is closed oil-tight and moisture-tight by a bushing, which has at least one through hole for passing the conductors (4,5) there through, and in which the conductors are pissed through a holderwhich is provided in the through hole of the bushing, characterized in - that the holder is a sealing plug which surrounds tightly the conductors (4,5) and which in the po sitio n of use is mo unte d oil-tight and moisture-tight in the through hole of the bushing, and - that for the conductors (4,5), which are installed between the electrical c o mp o ne nt a nd the electrical unit without interruption and with out the use of oil-stopping elements, a conductorisused respectively, which is provided between the core and its insulation with additional material, which is impermeable to oil and fills all space within the gap which is surrounded by the insulation, wherein the additional material in case of a solid core of the conductor is an intermediate layer surrounding the core and in case of a stranded core of the conductoralso fills out the inner hollow spacesofthe same. - that the holder is a sealing plug which surrounds tightly the conductors (4,5) and which in the po sitio n of use is mo unte d oil-tight and moisture-tight in the through hole of the bushing, and - that for the conductors (4,5), which are installed between the electrical c o mp o ne nt a nd the electrical unit without interruption and with out the use of oil-stopping elements, a conductorisused respectively, which is provided between the core and its insulation with additional material, which is impermeable to oil and fills all space within the gap which is surrounded by the insulation, wherein the additional material in case of a solid core of the conductor is an intermediate layer surrounding the core and in case of a stranded core of the conductoralso fills out the inner hollow spacesofthe same.
A method, in a user equipment, UE, or an evolved NodeB, eNB, of determining resources to be decoded by the UE to retrieve physical downlink control channels, comprising the following steps of: i. determining a start position of a unit of resources in one physical resource block pair; ii. determining a gap between two of the units; iii. determining a set of units, in a given plurality of physical resource block pairs, according to said start position and said gap, as the resources to be decoded and wherein said step i. determines the start position according to UE specific information, wherein said unit is a control channel element within a physical resource block, and said step i determines the start position of a control channel element in one physical resource block pair also according to: - the total number of control channel elements that is required in the physical downlink control channel; and - the number of control channel elements in one physical resource block pair. i. determining a start position of a unit of resources in one physical resource block pair; ii. determining a gap between two of the units; iii. determining a set of units, in a given plurality of physical resource block pairs, according to said start position and said gap, as the resources to be decoded and wherein said step i. determines the start position according to UE specific information, - the total number of control channel elements that is required in the physical downlink control channel; and - the number of control channel elements in one physical resource block pair.
Soil probing device comprising: - a measuring probe; - a plurality of rod sections (1,1') for the assembly of a probing rod comprising the measuring probe, each rod section having a central axis (x); - driving means for penetrating the probing rod into the ground, which probing rod, while being penetrated into the ground, is extendable each time by a new one of the rod sections (1, 1'); - measuring means for determining properties of the ground during penetration of the probing rod into the ground; in which the rod sections (1, 1') are provided at their outer ends with complementary male and female locking parts (5, 6) that, in an axially aligned position of adjacent rod sections, are movable relative to each other from an unlocked into a locked position and vice versa, characterized in that, the adjacent rod sections (1, 1') furthermore are flexibly connected with each other by means of a flexible connection organ that allows the adjacent rod sections, in the unlocked position of their locking parts (5, 6), to be flexibly moveable from a non-aligned storage position into said axially aligned position and vice versa. - a measuring probe; - a plurality of rod sections (1,1') for the assembly of a probing rod comprising the measuring probe, each rod section having a central axis (x); - driving means for penetrating the probing rod into the ground, which probing rod, while being penetrated into the ground, is extendable each time by a new one of the rod sections (1, 1'); - measuring means for determining properties of the ground during penetration of the probing rod into the ground; in which the rod sections (1, 1') are provided at their outer ends with complementary male and female locking parts (5, 6) that, in an axially aligned position of adjacent rod sections, are movable relative to each other from an unlocked into a locked position and vice versa, characterized in that, the adjacent rod sections (1, 1') furthermore are flexibly connected with each other by means of a flexible connection organ that allows the adjacent rod sections, in the unlocked position of their locking parts (5, 6), to be flexibly moveable from a non-aligned storage position into said axially aligned position and vice versa.
A method of sample analysis comprising: irradiating a sample with a primary interrogating beam of electromagnetic radiation that comprises at least one tubular beam the shape of which is a cone; said irradiation forming a continuum of Debye rings centred around a path defined by the primary interrogating beam, said Debye rings formed by electromagnetic radiation diffracted from the sample and caustic rims (202, 204) formed by the overlap of Debye rings in said continuum of Debye rings; the method comprising: scanning the sample with the beam to obtain diffraction data; sampling said diffraction data at the inner and outer caustic rims (202, 204); combining sub-sampled scanned diffraction data to form one or more perspective images of the sample, each image corresponding to the diffraction data sampled along one radial direction at rim intersections. irradiating a sample with a primary interrogating beam of electromagnetic radiation that comprises at least one tubular beam the shape of which is a cone; said irradiation forming a continuum of Debye rings centred around a path defined by the primary interrogating beam, said Debye rings formed by electromagnetic radiation diffracted from the sample and caustic rims (202, 204) formed by the overlap of Debye rings in said continuum of Debye rings; the method comprising: scanning the sample with the beam to obtain diffraction data; sampling said diffraction data at the inner and outer caustic rims (202, 204); combining sub-sampled scanned diffraction data to form one or more perspective images of the sample, each image corresponding to the diffraction data sampled along one radial direction at rim intersections. scanning the sample with the beam to obtain diffraction data; sampling said diffraction data at the inner and outer caustic rims (202, 204); combining sub-sampled scanned diffraction data to form one or more perspective images of the sample, each image corresponding to the diffraction data sampled along one radial direction at rim intersections.
A medical dressing for application to a contoured surface of a human body, said dressing having a central portion and a surrounding border portion and a lateral (x) and a longitudinal (y) extension; wherein said dressing comprises: - a backing layer, - an adhesive body contact layer, and - a pad arranged in said central portion between said backing layer and said body contact layer, wherein said backing layer and said body contact layer extend beyond the periphery of said pad to define said border portion along the contour of said pad; said pad being symmetric about a longitudinal center line and comprising a first lobed portion on one side of said longitudinal center line and a second lobed portion on the other side of said longitudinal center line, wherein said dressing comprises at least one gripping tab (108, 109); said gripping tab being coplanar with and projecting outwardly from the border portion of one of said lobed portions. - a backing layer, - an adhesive body contact layer, and - a pad arranged in said central portion between said backing layer and said body contact layer,
A method for data processing in a digital subscriber line environment wherein a first retransmission capability is provided by the first layer based on the OSI model and a second retransmission capability is provided by the second layer based on the OSI model, the second layer being an upper layer relative to the first layer, characterized in that data traffic discrimination is provided by the second layer by identifying data traffic types and, depending on the data traffic type, deciding on whether or not to apply the second retransmission by the second layer.