mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound catheter (1; 2; 3; 4; 5; 6) comprising: an elongated body, the elongated body having a longitudinal dimension, a distal end and an imaging core lumen; a first ablation element (200; 220) configured to ablate soft tissue; and an imaging core (100; 105; 107) disposed within the imaging core lumen and having a transducer housing and an ultrasound transducer (190; 192; 194); characterized in that the transducer housing comprises a first journal (136; 139) and in that the ultrasound catheter further comprises a first bearing fixed to the elongated body proximal to the ultrasound transducer (190; 192; 194) and a second bearing fixed to the elongated body distal to the ultrasound transducer (190; 192; 194) and configured to receive the first journal (136; 139), wherein the first and second bearings (120; 122) are configured to restrict longitudinal displacement of the ultrasound transducer (190; 192; 194) within the elongated body such that the ultrasound transducer is fixed in longitudinal position with respect to the catheter (1; 2; 3; 4; 5; 6); and wherein the first ablation element (200; 220) comprises a hole (206; 226) to receive the first journal (136; 139). an elongated body, the elongated body having a longitudinal dimension, a distal end and an imaging core lumen; a first ablation element (200; 220) configured to ablate soft tissue; and an imaging core (100; 105; 107) disposed within the imaging core lumen and having a transducer housing and an ultrasound transducer (190; 192; 194); characterized in that the transducer housing comprises a first journal (136; 139) and in that the ultrasound catheter further comprises a first bearing fixed to the elongated body proximal to the ultrasound transducer (190; 192; 194) and a second bearing fixed to the elongated body distal to the ultrasound transducer (190; 192; 194) and configured to receive the first journal (136; 139), wherein the first and second bearings (120; 122) are configured to restrict longitudinal displacement of the ultrasound transducer (190; 192; 194) within the elongated body such that the ultrasound transducer is fixed in longitudinal position with respect to the catheter (1; 2; 3; 4; 5; 6); and wherein the first ablation element (200; 220) comprises a hole (206; 226) to receive the first journal (136; 139).
A textile backsheet, comprising: (i) a high-loft nonwoven fabric having a thickness of at least 1 mm as determined utilizing a ProGage Thickness tester (model 89-2009) utilizing a 2" diameter foot, having a force application of 1.45 kPa during measurement; and (ii) a film, such as a vapor-permeable and liquid impermeable (VPLI) film or a non-permeable film, wherein the nonwoven fabric is bonded to the film via an adhesive layer; wherein the TBS has (a) a basis weight from about 10 grams-per-square-meter (gsm) to about 20 gsm, such as at least about any of the following: 10, 11, 12, 13, 14, and 15, and/or at most about any of the following: 20, 19, 18, 17, 16, and 15 gsm, and (b) an abrasion resistance grade ("Grade") of at least about 3.0 as determined by SS-EN ISO 12945-2, such as at most about any of the following: 5, 4.9,4.8, 4.7, 4.6, 4.5, 4.4, 4.3, 4.2, 4.1, and 4 as determined by SS-EN ISO 12945-2, and/or at least about any of the following: 3, 3.2, 3.4, 3.5, 3.6, 3.8, and 4 as determined by SS-EN ISO 12945-2. (i) a high-loft nonwoven fabric having a thickness of at least 1 mm as determined utilizing a ProGage Thickness tester (model 89-2009) utilizing a 2" diameter foot, having a force application of 1.45 kPa during measurement; and (ii) a film, such as a vapor-permeable and liquid impermeable (VPLI) film or a non-permeable film, wherein the nonwoven fabric is bonded to the film via an adhesive layer;
An aqueous copolymer composition comprising a) from 10 to 95 wt-% of a polyurethane copolymer, and b) from 5 to 90 wt-% of a polyvinyl copolymer obtained and/or obtainable from polymerising a monomer composition comprising from 30 parts to 100 parts by weight of at least one monomer comprising C 4-6 unsaturated diacid(s) and/or derivative(s) thereof per 100 parts by weight of the monomer composition, where at least one of the C 4-6 unsaturated diacid(s) and/or derivative(s) thereof comprise an amount of carbon-14 sufficient to produce a decay of at least about 1.5 dpm/gC (disintegrations per minute per gram carbon); and where the polyvinyl copolymer has a residual monomer level of less than 5000 ppm as determined by GCMS as defined in the description. a) from 10 to 95 wt-% of a polyurethane copolymer, and b) from 5 to 90 wt-% of a polyvinyl copolymer obtained and/or obtainable from polymerising a monomer composition comprising from 30 parts to 100 parts by weight of at least one monomer comprising C 4-6 unsaturated diacid(s) and/or derivative(s) thereof per 100 parts by weight of the monomer composition, where at least one of the C 4-6 unsaturated diacid(s) and/or derivative(s) thereof comprise an amount of carbon-14 sufficient to produce a decay of at least about 1.5 dpm/gC (disintegrations per minute per gram carbon); and where the polyvinyl copolymer has a residual monomer level of less than 5000 ppm as determined by GCMS as defined in the description.
A dengue vaccine comprising a chimeric nonstructural protein DJ NS1, wherein the chimeric nonstructural protein DJ NS1 comprises N-terminus of dengue virus nonstructural protein 1 (DV NS 1) from amino acids 1 to 270; and C-terminus of Japanese encephalitis virus nonstructural protein 1 (JEV NS1) from amino acids 271 to 352, or wherein amino acid sequence similarity between the chimeric nonstructural protein DJ NS1 and SEQ.ID.NO.1 is 90% or more.
A fan case for a gas turbine engine comprising: an annular liner including a plurality of liner fiber layers; and an annular case body surrounding the annular liner, the annular case body including a plurality of first fiber layers and a plurality of second fiber layers, wherein the first fiber layers each have a first fiber architecture and the second fiber layers each have a second, different fiber architecture, and wherein the second fiber layers are interleaved with the first fiber layers; characterised in that the first fiber layers extend axially beyond the second fiber layers in axially forward and aft directions. an annular liner including a plurality of liner fiber layers; and an annular case body surrounding the annular liner, the annular case body including a plurality of first fiber layers and a plurality of second fiber layers, wherein the first fiber layers each have a first fiber architecture and the second fiber layers each have a second, different fiber architecture, and wherein the second fiber layers are interleaved with the first fiber layers; characterised in that the first fiber layers extend axially beyond the second fiber layers in axially forward and aft directions.
Method for controlling the UV absorption properties of metal oxide-containing UV filter layers, where A) a layer comprising an organometallic compound is applied to a substrate and converted into a layer comprising a metal oxide or a mixed metal oxide at a temperature in the range from >230°C to 500°C, where the metal oxide and/or mixed metal oxide is ITO, ZnO, IZO or IGZO and where the temperature is adjusted stepwise and is 250°C, 300°C, 350°C, 400°C, 450°C or 500°C, and/or B) an organometallic compound is applied to a substrate and converted into a metal oxide or mixed metal oxide and where the application and conversion is carried out a number of times successively with formation of multilayered systems comprising metal oxides and/or mixed metal oxides and the organometallic compound for an individual layer is applied in a solution or dispersion comprising same in a concentration which decreases with increasing total number of layers in the multilayered systems, where the concentration in each of the individual layers is the same within a single multilayered system and where the metal oxide and/or mixed metal oxide is ITO, ZnO, IZO or IGZO. A) a layer comprising an organometallic compound is applied to a substrate and converted into a layer comprising a metal oxide or a mixed metal oxide at a temperature in the range from >230°C to 500°C, where the metal oxide and/or mixed metal oxide is ITO, ZnO, IZO or IGZO and where the temperature is adjusted stepwise and is 250°C, 300°C, 350°C, 400°C, 450°C or 500°C, and/or B) an organometallic compound is applied to a substrate and converted into a metal oxide or mixed metal oxide and where the application and conversion is carried out a number of times successively with formation of multilayered systems comprising metal oxides and/or mixed metal oxides and the organometallic compound for an individual layer is applied in a solution or dispersion comprising same in a concentration which decreases with increasing total number of layers in the multilayered systems, where the concentration in each of the individual layers is the same within a single multilayered system and where the metal oxide and/or mixed metal oxide is ITO, ZnO, IZO or IGZO.
A method for determining grid ionospheric vertical delay (GIVD) parameters for an in particular satellite-assisted augmentation system, wherein a virtual grid of the ionosphere having multiple ionospheric grid points is provided, wherein a maximum GIVD parameter (maxGIVD) and a minimum GIVD parameter (minGIVD) are determined for each IGP of the virtual grid, wherein for each IGP an initial maximum GIVD parameter (maxGIVD0) and an initial minimum GIVD parameter (minGIVD0) are determined, ascertained by interpolation with various values, ascertained from measurements, for the vertical total electron content (vTECs) of ionosphere pierce points (IPPs) situated around the IGP, wherein with this initial maxGIVDO and minGIVDO, by means of a first and second interpolation in each case vTECs for the IPP are ascertained for which vTECs that are ascertained from measurements are also present, wherein the vTECs interpolated from the maxGIVDO and minGIVDO are compared to the vTECs ascertained from measurements, wherein the maxGIVD for an IGP is selected in such a way that no vTEC, ascertained from measurements, for any IPP associated with the vTEC is greater than that resulting from a first interpolation with the maxGIVD of multiple IGPs that were selected for interpolation for the IPP, wherein the minGIVD for an IGP is selected in such a way that no vTEC, ascertained from measurements, for any IPP associated with the vTEC is less than that resulting from a second interpolation with the minGIVD of multiple IGPs that were selected for interpolation for the IPP, wherein for each IGP, a GIVD parameter that is provided for a transmission is determined from the particular maxGIVD and minGIVD, and wherein for the first interpolation and second interpolation, the IGPs for interpolation for an IPP are selected according to the specification described in Section A4.4.10.2 of Annex A of the document DO-229D, "Minimum Operational Performance Standards for Global Positioning System/Wide Area Augmentation System Airborne Equipment," publication year 2006.
A polyphase filter comprising: a first transistor; a second transistor; a third transistor; and a fourth transistor, wherein a first output terminal is connected to a first terminal of the first transistor, a second output terminal is connected to a first terminal of the second transistor, a third output terminal is connected to a first terminal of the third transistor, a fourth output terminal is connected to a first terminal of the fourth transistor, a second terminal of the first transistor and a control terminal of the fourth transistor are connected at a first connection point and a first input terminal is also connected to the first connection point, a second terminal of the third transistor and a control terminal of the second transistor are connected at a second connection point and a second input terminal is also connected to the second connection point, a second terminal of the second transistor and a control terminal of the first transistor are connected, and a second terminal of the fourth transistor and a control terminal of the third transistor are connected, wherein the polyphase filter only has the first input terminal and the second input terminal as its input terminals. a first output terminal is connected to a first terminal of the first transistor, a second output terminal is connected to a first terminal of the second transistor, a third output terminal is connected to a first terminal of the third transistor, a fourth output terminal is connected to a first terminal of the fourth transistor, a second terminal of the first transistor and a control terminal of the fourth transistor are connected at a first connection point and a first input terminal is also connected to the first connection point, a second terminal of the third transistor and a control terminal of the second transistor are connected at a second connection point and a second input terminal is also connected to the second connection point, a second terminal of the second transistor and a control terminal of the first transistor are connected, and a second terminal of the fourth transistor and a control terminal of the third transistor are connected, wherein the polyphase filter only has the first input terminal and the second input terminal as its input terminals.
A method, comprising transmitting data over a data transmission network from a first circuit switched transmission line through a first circuit switched network node to a second circuit switched network node that is coupled to a second circuit switched transmission line; employing, in the data transmission network, a network layer protocol; using a network layer protocol datagram for data received from the first circuit switched transmission line for transmission to the second network node, a destination address in the network layer protocol datagram being determined from: circuit switched channel identifying parameters identifying at least one channel in the second circuit switched transmission line, and a network layer protocol address of the second circuit switched network node, according to a predefined rule, characterised in that it is indicated within said network layer protocol datagram separately for each of a plurality of time slots known to at least one of said first and second circuit switched network nodes, whether the network layer protocol datagram carries data belonging to a channel corresponding to the time slot such that the second circuit switched network node is allowed to receive data to a channel from other sources in a non-consecutive manner when the network layer protocol datagram indicates that it does not carry data for that channel. circuit switched channel identifying parameters identifying at least one channel in the second circuit switched transmission line, and a network layer protocol address of the second circuit switched network node, according to a predefined rule,
A synthetic peptide comprising or consisting of the sequence Kaa 2 aa 3 Raa 5 aa 6 aa 7 aa 8 aa 9 aa 10, wherein, at physiological pH: - aa 2, aa 6, aa 8, aa 10 are positively charged residues; at most one of them may be substituted by a neutrally charged residue; - aa 3 is a neutrally charged residue, - aa 5 is a neutrally charged residue, - aa 7 is a neutrally charged residue with the exception of alanine, and - aa 9 is a negatively or neutrally charged residue the sequence being capable of binding to the syndecan-1 receptor, with the exception of the peptides comprising or consisting of the sequence KKLRIKSKEK (SEQ ID 1). - aa 2, aa 6, aa 8, aa 10 are positively charged residues; at most one of them may be substituted by a neutrally charged residue; - aa 3 is a neutrally charged residue, - aa 5 is a neutrally charged residue, - aa 7 is a neutrally charged residue with the exception of alanine, and - aa 9 is a negatively or neutrally charged residue
A tunnel lighting system comprising a plurality of lamps which each provided with an optics for achieving an asymmetric light intensity distribution and a uniform illumination of the road surface and of the tunnel surface and of the space disposed above the road, wherein the lamps are arranged in linear form behind one another above the road and/or at a side of a road, wherein the lamps are arranged 2 m or more from the ground, wherein the luminous flux of all lamps is limited to a half-space above the road behind the respective lamp viewed in the direction of travel, wherein the lamps each illuminate a conical or lobe-shaped radiation space, wherein the luminous flux respectively emitted by the lamps is restricted to a range of an angle of inclination to the vertical between 15° and 75° and a light intensity maximum is incident at an angle of 60° to 70° to the vertical, and wherein the asymmetrically designed, mutually complementing light intensity distributions of all lamps provide unvarying brightnesses in a view window onto the road in front of a vehicle and onto a rear side of a vehicle driving ahead of 100% to 300% of the brightnesses in a view window onto the side tunnel walls.
A method performed by a wireless communications device, the method comprising: disabling transmission by a WLAN transceiver during a WWAN scan interval; permitting transmission by both a WPAN transceiver and a WWAN transceiver during the WWAN scan interval; adjusting a beginning of a time slot of a frame transmitted by the WPAN transceiver in the WWAN scan interval based on one or more preambles of frames from the WWAN transceiver; and enabling transmission by the WLAN transceiver after the WWAN scan interval ends. disabling transmission by a WLAN transceiver during a WWAN scan interval; permitting transmission by both a WPAN transceiver and a WWAN transceiver during the WWAN scan interval; adjusting a beginning of a time slot of a frame transmitted by the WPAN transceiver in the WWAN scan interval based on one or more preambles of frames from the WWAN transceiver; and enabling transmission by the WLAN transceiver after the WWAN scan interval ends.
A method for crimping a polymer scaffold to a balloon, comprising: placing a scaffold having a first diameter on a support balloon; inflating the support balloon to a pressure for supporting and stabilizing the scaffold at the first diameter while the scaffold is being crimped; crimping the scaffold from the first diameter to a second diameter while the scaffold is supported by the support balloon; replacing the support balloon with a balloon of a balloon catheter after the scaffold is reduced to the second diameter; and crimping the scaffold to a third diameter, less than the second diameter, while the scaffold is supported by the balloon catheter. placing a scaffold having a first diameter on a support balloon; inflating the support balloon to a pressure for supporting and stabilizing the scaffold at the first diameter while the scaffold is being crimped; crimping the scaffold from the first diameter to a second diameter while the scaffold is supported by the support balloon; replacing the support balloon with a balloon of a balloon catheter after the scaffold is reduced to the second diameter; and crimping the scaffold to a third diameter, less than the second diameter, while the scaffold is supported by the balloon catheter.
A boron and fluorine-free glass fiber, which comprises components with contents in weight percentage as follows: SiO 2 59∼61 Al 2 O 3 12.5∼14 SiO 2 + Al 2 O 3 73∼75 CaO 21∼22.5 MgO 2.5∼3.5 CaO+ MgO 24∼26 TiO 2 0.1∼1.2 ZnO 0.1∼1.5 Na 2 O+K 2 O greater than 0, ≤ 0.7 Fe 2 O 3 greater than 0, ≤ 0.5
A dispensing system for dispensing an off-gassing liquid product mixed with a diluting product, comprising: a dispenser including a dispenser outlet; a product container containing the liquid product; an unprimed product line connecting the product container and the dispenser; and a diluter line operatively connected to the product line to combine the liquid product and the diluting product proximate the dispenser outlet; characterized in that the dispensing system further comprisesM a venting fitment operatively connected to the product container to vent gas and/or pressure produced by the liquid product, the venting fitment including a liquid impermeable membrane. a dispenser including a dispenser outlet; a product container containing the liquid product; an unprimed product line connecting the product container and the dispenser; and a diluter line operatively connected to the product line to combine the liquid product and the diluting product proximate the dispenser outlet; characterized in that the dispensing system further comprisesM a venting fitment operatively connected to the product container to vent gas and/or pressure produced by the liquid product, the venting fitment including a liquid impermeable membrane.
A method of communicating between a device and at least one RFID tag, comprising: transmitting, by the device, a resource allocation request to a cellular network (40, 51) to request an allocation of resources for transmission of a signal to find the at least one RFID tag; receiving, by the device, an allocation of resources for transmission of the signal to find the at least one RFID tag, the resources being allocated by the cellular network (40, 51); and transmitting, by the device, the signal to find the at least one RFID tag using the resources allocated by the cellular network (40, 51), the signal having a frequency in a frequency band licensed to the cellular network (40, 51), receiving, by the device, a tag response (64, 65) from the at least one RFID tag in response to the signal transmitted by the device, determining a position based on the tag response (64, 65), including determining a tag position of the at least one RFID tag from which the tag response (64, 65) was received by using a tag identifier included in the tag response (64, 65) to query a data base for the tag position of the at least one RFID tag, and determining the position of the device based on the tag position, wherein the tag response (64, 65) is received in the frequency band licensed to the cellular network (40, 51). transmitting, by the device, a resource allocation request to a cellular network (40, 51) to request an allocation of resources for transmission of a signal to find the at least one RFID tag; receiving, by the device, an allocation of resources for transmission of the signal to find the at least one RFID tag, the resources being allocated by the cellular network (40, 51); and transmitting, by the device, the signal to find the at least one RFID tag using the resources allocated by the cellular network (40, 51), the signal having a frequency in a frequency band licensed to the cellular network (40, 51), receiving, by the device, a tag response (64, 65) from the at least one RFID tag in response to the signal transmitted by the device, determining a position based on the tag response (64, 65), including determining a tag position of the at least one RFID tag from which the tag response (64, 65) was received by using a tag identifier included in the tag response (64, 65) to query a data base for the tag position of the at least one RFID tag, and determining the position of the device based on the tag position, wherein the tag response (64, 65) is received in the frequency band licensed to the cellular network (40, 51).
A reject station for expelling a flawed group of cigarettes from a pocket of a cigarette packing machine group-forming conveyor; the reject station comprises a first push device located alongside the group-forming conveyor and which, to expel the flawed group of cigarettes from the pocket, pushes some of the cigarettes in the group in an expulsion direction perpendicular to the path of the group-forming conveyor; the reject station is characterized by comprising a second push device located alongside the group-forming conveyor, on the opposite side to the first push device, and which, to expel the flawed group of cigarettes from the pocket, pushes the rest of the cigarettes in the group in an expulsion direction opposite to that of the first push device.