mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a printed nonwoven film laminate from a starting film web of a thermoplastic polymer material and a starting nonwoven web, wherein the melting point of the starting nonwoven web is above the crystallite melting point of at least one component of the polymer material of the starting film web, the method comprising the following steps: - at least partially coating the starting film web with a printing ink and with an adhesion promoter; - heating the coated film web together with the starting nonwoven web to a temperature which is above the crystallite melting point of the at least one component of the polymer material of the starting film web and of the adhesion promoter and below the crystallite melting point of the starting nonwoven web, to obtain a laminate; and - cooling the laminate obtained through a cooled roller nip (9, 10, 150, 160), characterized in that a printing ink containing the adhesion promoter is used. - at least partially coating the starting film web with a printing ink and with an adhesion promoter; - heating the coated film web together with the starting nonwoven web to a temperature which is above the crystallite melting point of the at least one component of the polymer material of the starting film web and of the adhesion promoter and below the crystallite melting point of the starting nonwoven web, to obtain a laminate; and - cooling the laminate obtained through a cooled roller nip (9, 10, 150, 160), characterized in that a printing ink containing the adhesion promoter is used.
A fouling control coating system comprising at least a cured first coat and a cured second coat, a) said first coat comprising a polysiloxane-based binder matrix constituting at least 40 % by dry weight of said first coat, and more than 50 % by weight of the binder matrix being represented by polysiloxane parts, said first coat further comprising one or more active ingredients selected from biocides and enzymes; and b) said second coat comprising a polysiloxane-based binder matrix constituting at least 40 % by dry weight of said second coat, and more than 50 % by weight of the binder matrix being represented by polysiloxane parts, wherein, when said one or more active ingredient includes biocide(s), c) said binder matrix of said first coat having included as a part thereof hydrophilic oligomer/polymer moieties, and/or said first coat further comprising one or more hydrophilic-modified polysiloxane oils, or d) said binder matrix of said second coat having included as a part thereof hydrophilic oligomer/polymer moieties, and/or said second coat further comprising one or more hydrophilic-modified polysiloxane oils. a) said first coat comprising a polysiloxane-based binder matrix constituting at least 40 % by dry weight of said first coat, and more than 50 % by weight of the binder matrix being represented by polysiloxane parts, said first coat further comprising one or more active ingredients selected from biocides and enzymes; and b) said second coat comprising a polysiloxane-based binder matrix constituting at least 40 % by dry weight of said second coat, and more than 50 % by weight of the binder matrix being represented by polysiloxane parts, c) said binder matrix of said first coat having included as a part thereof hydrophilic oligomer/polymer moieties, and/or said first coat further comprising one or more hydrophilic-modified polysiloxane oils, or d) said binder matrix of said second coat having included as a part thereof hydrophilic oligomer/polymer moieties, and/or said second coat further comprising one or more hydrophilic-modified polysiloxane oils.
A balloon-expandable stent that is capable of being crimped onto a delivery device, the stent comprising a main body having a circumference, the main body comprising: a plurality of first helical segments (120a, 120b) having a circumferential dimension that expands when the stent is expanded and contracts when the stent is crimped; a plurality of second helical segments (150a, 150b) having a circumferential dimension that expands when the stent is expanded and contracts when the stent is crimped; wherein the first helical segments (120a, 120b) are comprised of a plurality of first expandable elements and the second helical segments(150a, 150b) are comprised of a plurality of second expandable elements; and a plurality of struts for joining the first expandable elements together to form a first helical segment and for joining the second expandable elements together to form a second helical segment, each strut joining two first expandable elements and joining two second expandable elements; wherein, when the stent is crimped, a portion of one of the first helical segments (120a, 120b) and a portion of another of the first helical segments (120a, 120b) nest between a portion of one second helical segment (150a, 150b) and a portion of another second helical segment(150a, 150b); and wherein, when the stent is crimped, portions of a second helical segment (150a, 150b) nest within portions of a first helical segment (120a, 120b); wherein the first and second expandable elements have different rates of expansion; and wherein the first expandable elements are comprised of a plurality of substantially R-shaped structures. a plurality of first helical segments (120a, 120b) having a circumferential dimension that expands when the stent is expanded and contracts when the stent is crimped; a plurality of second helical segments (150a, 150b) having a circumferential dimension that expands when the stent is expanded and contracts when the stent is crimped; wherein the first helical segments (120a, 120b) are comprised of a plurality of first expandable elements and the second helical segments(150a, 150b) are comprised of a plurality of second expandable elements; and a plurality of struts for joining the first expandable elements together to form a first helical segment and for joining the second expandable elements together to form a second helical segment, each strut joining two first expandable elements and joining two second expandable elements; wherein, when the stent is crimped, a portion of one of the first helical segments (120a, 120b) and a portion of another of the first helical segments (120a, 120b) nest between a portion of one second helical segment (150a, 150b) and a portion of another second helical segment(150a, 150b); and wherein, when the stent is crimped, portions of a second helical segment (150a, 150b) nest within portions of a first helical segment (120a, 120b); wherein the first and second expandable elements have different rates of expansion; and wherein the first expandable elements are comprised of a plurality of substantially R-shaped structures.
Antenna device for vehicle-to-vehicle (C2C) or vehicle-to-X (C2X) communication, having an antenna, wherein the antenna can be connected to an electronic device via an antenna cable and radio-frequency signals can be transmitted between the electronic device and the antenna and vice versa via the antenna cable, wherein the antenna device has a control unit and switching units (6, 7) which are controlled by the control unit, wherein the switching units (6, 7) are used to switch between a receive path and a transmit path between the electronic device and the antenna, wherein a first amplifier is arranged in the receive path and a second amplifier is arranged in the transmit path, wherein a transceiving unit is connected to the control unit and can be connected, on the output side, to the antenna cable, wherein a signal can be modulated onto the antenna cable in a manner triggered by the electronic device, wherein the signal is transmitted to the control unit via the transceiving unit, and the control unit is prompted to modulate a further signal on the antenna cable via the transceiving unit, wherein the further signal is then emitted to the antenna via the transmit path, wherein the control unit is able to transmit the further signal leaving the transceiving unit to the antenna via the transmit path by actuating the switching units (6, 7) in such a manner that the transmit path, rather than the receive path, is connected, wherein a frequency detection unit is connected to the control unit, wherein the frequency detection unit is connected, on the output side, to the antenna cable, wherein control signals from the electronic device which have been modulated onto the antenna cable are detected using the frequency detection unit and a control pulse is emitted to the control unit, wherein the control pulse prompts the control unit to actuate the switching units (6, 7) to switch between the transmit and receive paths (9, 8), wherein control signals are generated or detected using the frequency detection unit in order to actuate the switching units (6, 7) to switch between the transmit and receive paths (9, 8) on the basis of triggering events in the electronic device or the antenna device, wherein the triggering events are those in which the electronic device modulates a control signal onto the antenna cable, wherein the control signal from the control unit provides the information to switch to the transmit path because radio-frequency signals are being transmitted from the electronic device, via the antenna cable, to the antenna for emission there, wherein the same also applies to the situation in which radio-frequency signals received by the antenna using the antenna device are transmitted to the electronic device via the receive path and the antenna cable.
A co-channel interference receiver comprising: a multiuser detector module (18; 114) adapted to receive a complex signal that contains information from K co-channel interfering signals, and configured to operate with at least one of an algorithm with partially quantized prior information and an algorithm based on prewhitened data; and a parameter estimation module (20; 202) adapted to receive the complex signal, and to generate estimated signature waveforms of each of the K co-channel interfering signals, the estimated signature waveforms being provided to the multiuser detector to enable demodulation of the K co-channel interfering signals, the parameter estimation module (20; 202) further adapted to determine a number of active users associated with the received complex signal and to output an active users vector to the multiuser detector module. a multiuser detector module (18; 114) adapted to receive a complex signal that contains information from K co-channel interfering signals, and configured to operate with at least one of an algorithm with partially quantized prior information and an algorithm based on prewhitened data; and a parameter estimation module (20; 202) adapted to receive the complex signal, and to generate estimated signature waveforms of each of the K co-channel interfering signals, the estimated signature waveforms being provided to the multiuser detector to enable demodulation of the K co-channel interfering signals, the parameter estimation module (20; 202) further adapted to determine a number of active users associated with the received complex signal and to output an active users vector to the multiuser detector module.
A network configuration method, applied to a base station in a high-speed-railway dedicated network, characterized by the method comprising: receiving a random access request from user equipment, UE; and sending a radio resource control connection reconfiguration signaling to the UE, wherein the radio resource control connection reconfiguration signaling carries a preset first speed threshold configured to instruct the UE to perform cell measurement on adjacent cells in a public Long Term Evolution, LTE, network when the UE moves at a speed less than the first speed threshold. receiving a random access request from user equipment, UE; and sending a radio resource control connection reconfiguration signaling to the UE, wherein the radio resource control connection reconfiguration signaling carries a preset first speed threshold configured to instruct the UE to perform cell measurement on adjacent cells in a public Long Term Evolution, LTE, network when the UE moves at a speed less than the first speed threshold.
A medical apparatus, comprising: a sleeve adapted to be placed in the gastrointestinal tract; an anchoring component attached to at least a portion of said sleeve; a delivery tube having a distal end portion, a proximal end portion and at least one lumen, wherein the anchoring component is arranged on the distal end portion of the delivery tube; a fixing component on the delivery tube configured to impede the anchoring component from moving along an axis of the delivery tube; a delivery sheath arranged on at least a portion of the delivery tube; and a cap arranged over at least a portion of the sheath, wherein the cap forms a space between a distal end of the delivery tube and inside surface of the cap and the sleeve is arranged in at least a portion of the space. a sleeve adapted to be placed in the gastrointestinal tract; an anchoring component attached to at least a portion of said sleeve; a delivery tube having a distal end portion, a proximal end portion and at least one lumen, wherein the anchoring component is arranged on the distal end portion of the delivery tube; a fixing component on the delivery tube configured to impede the anchoring component from moving along an axis of the delivery tube; a delivery sheath arranged on at least a portion of the delivery tube; and a cap arranged over at least a portion of the sheath, wherein the cap forms a space between a distal end of the delivery tube and inside surface of the cap and the sleeve is arranged in at least a portion of the space.
A method performed by a first wireless communication device, the method comprising: associating a first, power save delivery mechanism with a plurality of access categories, wherein said power save delivery mechanism comprises a mechanism for delivering wireless communication traffic, and said access categories correspond to said traffic; characterised in that, based on an access category extracted from a frame received by said first wireless communication device from a second wireless communication device over a wireless communication link, the method further comprises selecting either said first power save delivery mechanism or a second, different, power save delivery mechanism for delivery of one or more additional frames from said second wireless communication device to the first wireless communication device via said wireless communication link. associating a first, power save delivery mechanism with a plurality of access categories, wherein said power save delivery mechanism comprises a mechanism for delivering wireless communication traffic, and said access categories correspond to said traffic; characterised in that, based on an access category extracted from a frame received by said first wireless communication device from a second wireless communication device over a wireless communication link, the method further comprises selecting either said first power save delivery mechanism or a second, different, power save delivery mechanism for delivery of one or more additional frames from said second wireless communication device to the first wireless communication device via said wireless communication link.
A method of diagnosing eczema or psoriasis, wherein said method differentiates between eczema and psoriasis, and comprises determining the expression of at least two markers in a sample taken from an individual, wherein said at least two markers are selected from CCL27, NOS2, IL36G, KLK13, SOST, NPTX1, PLA2G4D, GDA, IL36A, TGM1, CLEC4G, IL13, TCN1, TMPRSS11D and RHCG, provided that said at least two markers consist of or comprise (a) CCL27 and NOS2; (b) CCL27 and KLK13; (c) IL36G and KLK13; (d) CCL27 and IL36G; (e) NOS2 and IL36G; (f) NOS2 and KLK13; (g) SOST; or (h) NPTX1; and assessing on the basis of the expression of said at least two markers whether the individual is afflicted with eczema or psoriasis. (a) CCL27 and NOS2; (b) CCL27 and KLK13; (c) IL36G and KLK13; (d) CCL27 and IL36G; (e) NOS2 and IL36G; (f) NOS2 and KLK13; (g) SOST; or (h) NPTX1; and
A system comprising a chip and an external transmission line, the chip comprising: a bonding pad region comprising a signal pad Z and a ground pad, the bonding pad region having a first impedance and being connected to the external transmission line; a transmission section extending away from the bonding pad region and comprising a signal electrode electrically connected to the signal pad and a ground electrode electrically connected to the ground pad, the transmission section having a second impedance wherein the bonding pad region is between the transmission section and the external transmission line, wherein: the width of the signal electrode is less than the width of the signal pad, the width of the ground electrode is less than the width of the ground pad, the transmission section comprises a first non-conductive gap between the signal electrode and the ground electrode, and the bonding pad region comprises a second non-conductive gap between the signal pad and the ground pad; the width of the second non-conductive gap (Gb) is less than the width of either the signal pad or the ground pad (Pb); the impedance of the external transmission line is approximately equal to the second impedance; and the second impedance is not equal to the first impedance. a bonding pad region comprising a signal pad Z and a ground pad, the bonding pad region having a first impedance and being connected to the external transmission line; a transmission section extending away from the bonding pad region and comprising a signal electrode electrically connected to the signal pad and a ground electrode electrically connected to the ground pad, the transmission section having a second impedance wherein the bonding pad region is between the transmission section and the external transmission line, wherein: the width of the signal electrode is less than the width of the signal pad, the width of the ground electrode is less than the width of the ground pad, the transmission section comprises a first non-conductive gap between the signal electrode and the ground electrode, and the bonding pad region comprises a second non-conductive gap between the signal pad and the ground pad; the width of the second non-conductive gap (Gb) is less than the width of either the signal pad or the ground pad (Pb); the impedance of the external transmission line is approximately equal to the second impedance; and the second impedance is not equal to the first impedance. the width of the signal electrode is less than the width of the signal pad, the width of the ground electrode is less than the width of the ground pad, the transmission section comprises a first non-conductive gap between the signal electrode and the ground electrode, and the bonding pad region comprises a second non-conductive gap between the signal pad and the ground pad; the width of the second non-conductive gap (Gb) is less than the width of either the signal pad or the ground pad (Pb); the impedance of the external transmission line is approximately equal to the second impedance; and the second impedance is not equal to the first impedance.
A wet electrolytic capacitor comprising: a casing that contains a sidewall extending to an upper end to define an opening, wherein the sidewall further defines an inner surface that surrounds an interior; at least one anode (16,20a,20b) and at least one cathode (32, 31a, 31b) positioned within the interior of the casing, wherein the cathode (32, 31a, 31b) contains an electrochemically-active material and further wherein an anode lead (22, 24, 26) extends from the anode (16, 20a, 20b); a working electrolyte that is in electrical contact with the anode (16,20a,20b) and the electrochemically-active material; a lid assembly that contains a lid positioned on an upper end of the casing sidewall, wherein the lid defines an orifice through which a tube extends, wherein the tube accommodates the anode lead (22,24,26) that extends from the anode (16,20a,20b), and further wherein a dielectric layer is formed on a surface of the tube. a casing that contains a sidewall extending to an upper end to define an opening, wherein the sidewall further defines an inner surface that surrounds an interior; at least one anode (16,20a,20b) and at least one cathode (32, 31a, 31b) positioned within the interior of the casing, wherein the cathode (32, 31a, 31b) contains an electrochemically-active material and further wherein an anode lead (22, 24, 26) extends from the anode (16, 20a, 20b); a working electrolyte that is in electrical contact with the anode (16,20a,20b) and the electrochemically-active material; a lid assembly that contains a lid positioned on an upper end of the casing sidewall, wherein the lid defines an orifice through which a tube extends,
A maneuvering procedure for maneuvering a hybrid aerodyne comprising a fuselage, a fixed wing (2, 3, 4, 5), a thruster for cruising flight, and a rotary wing (6, 7) for stages of vertical flight and suitable for being held stationary during cruising flight of the aerodyne, the rotary wing being suitable for producing lift by rotating in a stage of vertical flight and for being stopped and stowed longitudinally in a stage of cruising flight, the rotary wing being the type comprising at least two contrarotating single-blades (6, 7) with counterweights, both being situated at the top of the fuselage, the single-blades being hinged about axis perpendicular to the rotor axis of rotation, substantially at said rotor mast axis of rotation, the procedure including a transition stage between a stage of vertical flight and a stage of cruising flight, and being characterized in that in the transition stage, so long as the speed of each single-blade (6, 7) is less than a threshold speed of rotation of the order of 60% of the nominal speed of rotation, the pitch of each single-blade is such that it no longer provides any lift force and the transverse hinge of the single-blade to its rotor axis is held locked in a position such that the single-blade is perpendicular to the rotor shaft.
A recombinant nucleic acid molecule comprising a nucleotide sequence encoding an amino acid sequence having pesticidal activity, wherein said nucleotide sequence is selected from the group consisting of: a) the nucleotide sequences set forth in SEQ ID NOS: 20, 157, 158, 202 and 203; and b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO: 69. a) the nucleotide sequences set forth in SEQ ID NOS: 20, 157, 158, 202 and 203; and b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO: 69.