mhurhangee/patent-ind-claim-en huggingface dataset:
An RF signal acousto-optic spectrum analyzer (AOA), comprising: a source of polychromatic light (ZSP); an optical spectrometer with a multi-segment photo detector (FD); an acousto-optic transducer (PAO) placed in the route of a light beam, and including a piezoelectric transducer (PP) connected with a source of RF signals and being configured for generating acoustic waves creating a Bragg grating (SSB) in the area of wave propagation; and a beam splitter (DW), characterized in that : the acousto-optic transducer (PAO) includes a short optical fiber section (D), to the base of which the piezoelectric transducer (PP) is attached; the opposite end of the short optical fiber section (D) is connected with a second optical fiber section (B); the second optical fiber section (B) is connected via the beam splitter (DW) with a first optical fiber section (A); the source of polychromatic light (ZSP) is attached to the first optical fiber section (A); and a third optical fiber section (C) is connected to the optical spectrometer; the piezoelectric transducer (PP) being situated at the extension of optical axis of the second optical fiber section (B). a source of polychromatic light (ZSP); an optical spectrometer with a multi-segment photo detector (FD); an acousto-optic transducer (PAO) placed in the route of a light beam, and including a piezoelectric transducer (PP) connected with a source of RF signals and being configured for generating acoustic waves creating a Bragg grating (SSB) in the area of wave propagation; and a beam splitter (DW), characterized in that : the acousto-optic transducer (PAO) includes a short optical fiber section (D), to the base of which the piezoelectric transducer (PP) is attached; the opposite end of the short optical fiber section (D) is connected with a second optical fiber section (B); the second optical fiber section (B) is connected via the beam splitter (DW) with a first optical fiber section (A); the source of polychromatic light (ZSP) is attached to the first optical fiber section (A); and a third optical fiber section (C) is connected to the optical spectrometer; the piezoelectric transducer (PP) being situated at the extension of optical axis of the second optical fiber section (B). the acousto-optic transducer (PAO) includes a short optical fiber section (D), to the base of which the piezoelectric transducer (PP) is attached; the opposite end of the short optical fiber section (D) is connected with a second optical fiber section (B); the second optical fiber section (B) is connected via the beam splitter (DW) with a first optical fiber section (A); the source of polychromatic light (ZSP) is attached to the first optical fiber section (A); and a third optical fiber section (C) is connected to the optical spectrometer; the piezoelectric transducer (PP) being situated at the extension of optical axis of the second optical fiber section (B).
A coaxial connector comprising: a body element having an inner bore configured for receiving a cable having inner and outer conductors; a center conductor element configured for engaging an inner conductor of the cable received by the body element; a tubular ground slide configured for extending over the center conductor element and having a front end and rear end , the rear end of the ground slide engaging a portion of the body element for being axially movable on the portion of the body element; a spring configured to engage an outer surface of the body element and positioned to abut the rear end of the ground slide for biasing the ground slide with respect to the body element; a conductive sleeve having a rear end configured for press fitting onto the body element, the sleeve further configured for capturing the spring and ground slide with the body element; the conductive sleeve including a plurality of integral spring fingers at a front end thereof that are configured for contacting the front end of the movable ground slide for providing electrical connection with the body element at a front end of the connector. a body element having an inner bore configured for receiving a cable having inner and outer conductors; a center conductor element configured for engaging an inner conductor of the cable received by the body element; a tubular ground slide configured for extending over the center conductor element and having a front end and rear end , the rear end of the ground slide engaging a portion of the body element for being axially movable on the portion of the body element; a spring configured to engage an outer surface of the body element and positioned to abut the rear end of the ground slide for biasing the ground slide with respect to the body element; a conductive sleeve having a rear end configured for press fitting onto the body element, the sleeve further configured for capturing the spring and ground slide with the body element; the conductive sleeve including a plurality of integral spring fingers at a front end thereof that are configured for contacting the front end of the movable ground slide for providing electrical connection with the body element at a front end of the connector.
An inhibitor of transforming growth factor beta (TGFβ) and an inhibitor of Programmed cell death protein 1 (PD-1) for use in a method for treating cancer or preventing the recurrence of cancer, the method comprising administering to a subject in need thereof therapeutically effective amounts of the TGFβ inhibitor and the PD-1 inhibitor, wherein the PD-1 inhibitor is an anti-PD-1 antibody; and, wherein the TGFβ inhibitor is an antibody that binds TGFβ comprising: (a) a heavy chain CDR1 amino acid sequence set forth in SEQ ID NOs: 13, 19 and 25; (b) a heavy chain CDR2 amino acid sequence set forth in SEQ ID NOs: 14, 20 and 26; (c) a heavy chain CDR3 amino acid sequence set forth in SEQ ID NOs: 15, 21 and 27; (d) a light chain CDR1 amino acid sequence set forth in SEQ ID NOs: 16, 22 and 28; (e) a light chain CDR2 amino acid sequence set forth in SEQ ID NOs: 17, 23 and 29; and (f) a light chain CDR3 amino acid sequence set forth in SEQ ID NOs: 18, 24 and 30. (a) a heavy chain CDR1 amino acid sequence set forth in SEQ ID NOs: 13, 19 and 25; (b) a heavy chain CDR2 amino acid sequence set forth in SEQ ID NOs: 14, 20 and 26; (c) a heavy chain CDR3 amino acid sequence set forth in SEQ ID NOs: 15, 21 and 27; (d) a light chain CDR1 amino acid sequence set forth in SEQ ID NOs: 16, 22 and 28; (e) a light chain CDR2 amino acid sequence set forth in SEQ ID NOs: 17, 23 and 29; and (f) a light chain CDR3 amino acid sequence set forth in SEQ ID NOs: 18, 24 and 30.
A system for making an armoured cable , comprising: a tube-forming device configured to seam weld an armour tubing of the armoured cable ; at least one guide tube disposed in a welding zone in which a seam of the armour tubing is welded, the at least one guide tube positioned to protect at least one optical fibre during welding of the seam, but not being part of the armoured cable after the making; and characterised by a coating device configured to coat the at least one optical fibre with a coating, wherein the coating is configured to reduce friction between the at least one optical fibre and the at least one guide tube during an insertion operation. a tube-forming device configured to seam weld an armour tubing of the armoured cable ; at least one guide tube disposed in a welding zone in which a seam of the armour tubing is welded, the at least one guide tube positioned to protect at least one optical fibre during welding of the seam, but not being part of the armoured cable after the making; and characterised by a coating device configured to coat the at least one optical fibre with a coating, wherein the coating is configured to reduce friction between the at least one optical fibre and the at least one guide tube during an insertion operation.
Adjustable installation console for securing cable lead channels onto a building space, comprising: - a mounting section , - an extension , with one or more extractable telescopic elements , - a support plate for holding a cable lead channel, wherein the angle of the extension relative to the mounting section can be adjusted by an adjusting screw guided in an elongated hole , characterised in that - retaining clips are formed on the support plate which can be displaced along an elongated hole 934), - the holding clips have at least two catching legs which are inclined laterally downwards at an acute angle and are opposite one another and - in that the at least two catching legs are of different lengths. - a mounting section , - an extension , with one or more extractable telescopic elements , - a support plate for holding a cable lead channel, wherein the angle of the extension relative to the mounting section can be adjusted by an adjusting screw guided in an elongated hole , - retaining clips are formed on the support plate which can be displaced along an elongated hole 934), - the holding clips have at least two catching legs which are inclined laterally downwards at an acute angle and are opposite one another and - in that the at least two catching legs are of different lengths.
Method to prepare a filler with a hyaluronic acid base comprising the following steps: A) crosslinking the hyaluronic acid by mixing the following components in a reaction chamber: water, hyaluronic acid (HA), a crosslinking agent chosen from the class of polyethylene glycols (PEGs), a solution of alkali metal hydroxide, the mixing time being comprised between 10 and 40 minutes; B) a chemical neutralization step of the gel of crosslinked HA obtained in step A), comprising: B 1 ) preparing a neutralization solution by mixing the following components: water, hydrochloric acid HCl, a buffer agent, optionally lidocaine or derivatives thereof; B 2 ) dividing the neutralizing solution thus obtained into a number n of partial portions and transferring said partial portions inside n containers comprising the gel of crosslinked HA divided in the number n of partial portions, where n is a number comprised between 4 and 32; B 3 ) subjecting to mixing the n containers by means of a rotary device, making them rotate around the axis of the rotary device so as to promote a penetration of the neutralizing solution inside the gel of hyaluronic acid, and obtain a filler of crosslinked hyaluronic acid in the form of hydrogel. A) crosslinking the hyaluronic acid by mixing the following components in a reaction chamber: water, hyaluronic acid (HA), a crosslinking agent chosen from the class of polyethylene glycols (PEGs), a solution of alkali metal hydroxide, the mixing time being comprised between 10 and 40 minutes; B) a chemical neutralization step of the gel of crosslinked HA obtained in step A), comprising: B 1 ) preparing a neutralization solution by mixing the following components: water, hydrochloric acid HCl, a buffer agent, optionally lidocaine or derivatives thereof; B 2 ) dividing the neutralizing solution thus obtained into a number n of partial portions and transferring said partial portions inside n containers comprising the gel of crosslinked HA divided in the number n of partial portions, where n is a number comprised between 4 and 32; B 3 ) subjecting to mixing the n containers by means of a rotary device, making them rotate around the axis of the rotary device so as to promote a penetration of the neutralizing solution inside the gel of hyaluronic acid, and obtain a filler of crosslinked hyaluronic acid in the form of hydrogel. B 1 ) preparing a neutralization solution by mixing the following components: water, hydrochloric acid HCl, a buffer agent, optionally lidocaine or derivatives thereof; B 2 ) dividing the neutralizing solution thus obtained into a number n of partial portions and transferring said partial portions inside n containers comprising the gel of crosslinked HA divided in the number n of partial portions, where n is a number comprised between 4 and 32; B 3 ) subjecting to mixing the n containers by means of a rotary device, making them rotate around the axis of the rotary device so as to promote a penetration of the neutralizing solution inside the gel of hyaluronic acid, and obtain a filler of crosslinked hyaluronic acid in the form of hydrogel.
A refrigerant apparatus which includes a refrigerant circuit, an insulating box body having side walls, a storage chamber having an open upper surface, wherein the open upper surface of the storage chamber is provided with an openable/closeable lid constituted of an insulating material, a mechanical chamber which is constituted on one of said side walls of the insulating box body , wherein the upper chamber of the mechanical chamber comprises an open upper surface and a top panel for openably closing the open upper surface of the mechanical chamber , and a measurement hole is formed in the side wall of the insulating box body on the side of the mechanical chamber to communicate with the inside of the storage chamber , a plug constituted of a material having insulating properties being received in said measurement hole , and wherein the measurement hole is formed in said side wall of the insulating box body on which the mechanical chamber is constituted so that said measurement hole opens into said upper chamber of the mechanical chamber so that, when the refrigerant apparatus is operational to cool the storage chamber and an instrument for measuring or recording the temperature of the storage chamber is to be used, the top panel of the mechanical chamber is opened and the instrument for measuring the temperature in the storage chamber is inserted into the storage chamber through the measurement hole from the side of the mechanical chamber , characterized in that the refrigerant circuit is constituted of a compressor, an evaporator and the like, wherein the storage chamber is cooled by the evaporator, in that the plug is constituted of a sponge-like deformable material and in that the mechanical chamber has a partition plate which divides the mechanical chamber into an upper chamber and a lower chamber in which the compressor and the like are installed.
A bicycle trainer comprising: a pair of front wheel rollers that supports a front wheel of a bicycle; a pair of rear wheel rollers that supports a rear wheel of the bicycle; and a rotation synchronizing unit (60 - 64, 66) configured to synchronize a rotation of the front wheel rollers with a rotation of the rear wheel rollers ; characterized by a front wheel roller adjusting unit configured to follow a handlebar operation of the bicycle to adjust positions or postures of the front wheel rollers such that contact positions where the front wheel of the bicycle contacts the front wheel rollers become constant. a pair of front wheel rollers that supports a front wheel of a bicycle; a pair of rear wheel rollers that supports a rear wheel of the bicycle; and a rotation synchronizing unit (60 - 64, 66) configured to synchronize a rotation of the front wheel rollers with a rotation of the rear wheel rollers ; characterized by a front wheel roller adjusting unit configured to follow a handlebar operation of the bicycle to adjust positions or postures of the front wheel rollers such that contact positions where the front wheel of the bicycle contacts the front wheel rollers become constant.
Portable device for helping to tie a shoelace (L), said device comprising a base portion and a mast portion in a use configuration, characterized in that said mast has, at one end, in a longitudinal direction, a bearing surface for a portion of the shoelace, and a friction retaining means designed to hold said shoelace portion on said surface. characterized in that said mast has, at one end, in a longitudinal direction, a bearing surface for a portion of the shoelace, and a friction retaining means designed to hold said shoelace portion on said surface.
Use of a compound selected from the group consisting of 3-(4-isobutyl-2-methyl-cyclohexyl)propanal, 3-(4-Isobutyl-6-methyl-cyclohexa-1,5-dien-1-yl)propanal and 3-(4-isobutyl-6-methylene-cyclohexen-1-yl)propanal as a perfuming ingredient.
An ostomy appliance comprising: inner and outer walls of flexible sheet material joined together to define a cavity for containing a stomal output, the inner wall comprising an inlet for receiving the stomal output into the cavity; a retractable drain being slidably movable between an extended configuration for draining the stomal output from the cavity and a retracted configuration for storage of the drain; and a guide panel arranged on the inner wall or the outer wall, thereby defining a channel for receiving the retractable drain characterised in that the ostomy appliance further comprises a push element for driving the retractable drain into the channel to move the retractable drain towards the retracted configuration. inner and outer walls of flexible sheet material joined together to define a cavity for containing a stomal output, the inner wall comprising an inlet for receiving the stomal output into the cavity; a retractable drain being slidably movable between an extended configuration for draining the stomal output from the cavity and a retracted configuration for storage of the drain; and a guide panel arranged on the inner wall or the outer wall, thereby defining a channel for receiving the retractable drain characterised in that the ostomy appliance further comprises a push element for driving the retractable drain into the channel to move the retractable drain towards the retracted configuration.
A first network device, comprising: a main bridge (brO); a first bridge (br1) different from the main bridge (brO); an Ethernet interface provided with a first Ethernet port (EP1) whose bridge is selectively set as one of the main bridge (br0) and the first bridge (br1); and a processing unit coupled to the Ethernet interface to perform the following steps in response to the first Ethernet port (EP1) being connected to a mesh network : controlling the first Ethernet port (EP1) to transmit a first broadcast packet (BP#1) carrying a first EIW (EIW); if a second broadcast packet (BP#2) is received within a predetermined period, parsing the second broadcast packet (BP#2) to extract a packet path information to determine whether a path loop (LP) exists; if it is determined that the path loop (LP) exists, determining, according to the first EIW and a second EIW carried by the second broadcast packet (BP#2), whether the bridge of the first Ethernet port (EP1) is set as the first bridge (br1) and whether the first Ethernet port (EP1) needs to be set to a blocking state. a main bridge (brO); a first bridge (br1) different from the main bridge (brO); an Ethernet interface provided with a first Ethernet port (EP1) whose bridge is selectively set as one of the main bridge (br0) and the first bridge (br1); and a processing unit coupled to the Ethernet interface to perform the following steps in response to the first Ethernet port (EP1) being connected to a mesh network : controlling the first Ethernet port (EP1) to transmit a first broadcast packet (BP#1) carrying a first EIW (EIW); if a second broadcast packet (BP#2) is received within a predetermined period, parsing the second broadcast packet (BP#2) to extract a packet path information to determine whether a path loop (LP) exists; if it is determined that the path loop (LP) exists, determining, according to the first EIW and a second EIW carried by the second broadcast packet (BP#2), whether the bridge of the first Ethernet port (EP1) is set as the first bridge (br1) and whether the first Ethernet port (EP1) needs to be set to a blocking state. controlling the first Ethernet port (EP1) to transmit a first broadcast packet (BP#1) carrying a first EIW (EIW); if a second broadcast packet (BP#2) is received within a predetermined period, parsing the second broadcast packet (BP#2) to extract a packet path information to determine whether a path loop (LP) exists; if it is determined that the path loop (LP) exists, determining, according to the first EIW and a second EIW carried by the second broadcast packet (BP#2), whether the bridge of the first Ethernet port (EP1) is set as the first bridge (br1) and whether the first Ethernet port (EP1) needs to be set to a blocking state.
A method in a remote unit, the method comprising: receiving , while in connected mode, an indication to monitor parameters in idle mode, said parameters comprising parameters of failures during a connection establishment from idle mode; after receiving the indication to monitor parameters, transitioning from the connected mode to the idle mode; monitoring the parameters in the idle mode; transmitting a request to a first base station to establish a connection; in response to not receiving a correct response to establish the connection from the first base station: performing a cell reselection resulting in selection of a second base station; and transmitting a failure report to the second base station to identify the first base station as a rogue base station, wherein the failure report comprises the parameters gathered during the connection establishment failure with the first base station and the parameters gathered in idle mode. receiving , while in connected mode, an indication to monitor parameters in idle mode, said parameters comprising parameters of failures during a connection establishment from idle mode; after receiving the indication to monitor parameters, transitioning from the connected mode to the idle mode; monitoring the parameters in the idle mode; transmitting a request to a first base station to establish a connection; in response to not receiving a correct response to establish the connection from the first base station: performing a cell reselection resulting in selection of a second base station; and transmitting a failure report to the second base station to identify the first base station as a rogue base station, wherein the failure report comprises the parameters gathered during the connection establishment failure with the first base station and the parameters gathered in idle mode. performing a cell reselection resulting in selection of a second base station; and transmitting a failure report to the second base station to identify the first base station as a rogue base station, wherein the failure report comprises the parameters gathered during the connection establishment failure with the first base station and the parameters gathered in idle mode.