mhurhangee/patent-ind-claim-en huggingface dataset:
A movable electronic device, comprising a contact-type detection electrode for detecting dispersible dirt, a positive-electrode connection portion (+) and a negative-electrode connection portion (-), the contact-type detection electrode comprising: a support ; a plurality of electrical conductors , arranged on the support and being flexible; wherein the support is arranged with the positive-electrode connection portion (+) and the negative-electrode connection portion (-), a part of the plurality of electrical conductors are connected to the positive-electrode connection portion (+), and the remaining part of the plurality of electrical conductors are connected to the negative-electrode connection portion (-); wherein each of the plurality of electrical conductors has a fine hair-like structure; wherein the support has a first side having a longitudinal axis, and the plurality of the electrical conductors are configured to be spaced apart from each other along the longitudinal axis of the first side ; and wherein one of the plurality of electrical conductors connected to the negative-electrode connection portion (-) is disposed separately between two of the plurality of electrical conductors connected to the positive-electrode connection portion (+), characterised in that the support is in a strip shape; and the positive-electrode connection portion (+) and the negative-electrode connection portion(-) are plug-in connectors or magnetic contacts. a support ; a plurality of electrical conductors , arranged on the support and being flexible; wherein the support is arranged with the positive-electrode connection portion (+) and the negative-electrode connection portion (-), a part of the plurality of electrical conductors are connected to the positive-electrode connection portion (+), and the remaining part of the plurality of electrical conductors are connected to the negative-electrode connection portion (-); wherein each of the plurality of electrical conductors has a fine hair-like structure; wherein the support has a first side having a longitudinal axis, and the plurality of the electrical conductors are configured to be spaced apart from each other along the longitudinal axis of the first side ; and wherein one of the plurality of electrical conductors connected to the negative-electrode connection portion (-) is disposed separately between two of the plurality of electrical conductors connected to the positive-electrode connection portion (+), characterised in that the support is in a strip shape; and the positive-electrode connection portion (+) and the negative-electrode connection portion(-) are plug-in connectors or magnetic contacts.
A method of operating an emergency call procedure in a telecommunications network, the method comprising: storing , for a user of an IMS network, emergency contact URIs of one or more emergency contacts of the user who may be contacted by emergency services in the event of an emergency call from the user; receiving (201; 301) an emergency call from the user, wherein the emergency call is made using a user equipment, UE ; and providing (215; 316) the emergency contact URIs to a Public Safety Answering Point , PSAP; receiving, at a Location Retrieval Function, LRF, or Gateway Mobile Location Centre, GMLC, a request from the PSAP for location information relating to the location of the one or more emergency contacts; the LRF/GMLC obtaining (214; 315) the location information; and the LRF/GMLC providing (215; 316) the location information to the PSAP ; determining, by the PSAP based on the location of the one or more emergency contacts relative to the location of the UE , whether or not to contact the one or more emergency contacts. storing , for a user of an IMS network, emergency contact URIs of one or more emergency contacts of the user who may be contacted by emergency services in the event of an emergency call from the user; receiving (201; 301) an emergency call from the user, wherein the emergency call is made using a user equipment, UE ; and providing (215; 316) the emergency contact URIs to a Public Safety Answering Point , PSAP; receiving, at a Location Retrieval Function, LRF, or Gateway Mobile Location Centre, GMLC, a request from the PSAP for location information relating to the location of the one or more emergency contacts; the LRF/GMLC obtaining (214; 315) the location information; and the LRF/GMLC providing (215; 316) the location information to the PSAP ; determining, by the PSAP based on the location of the one or more emergency contacts relative to the location of the UE , whether or not to contact the one or more emergency contacts.
The use of activated carbon for the decolorization of acetoacetylated glycerol, wherein the activated carbon has a mesh size of smaller than 80.
A system for generating a drive signal in a vibrating measuring device including at least one conduit configured to receive a flowing substance, at least one drive that vibrates the at least one conduit , and at least one pick-off that measures motion of the at least one conduit , with the system being characterized by : one or more electronics configured to receive at least one pick-off signal from the at least one pick-off , with the one or more electronics including at least two available drive chains (C 1 , C 2 , C 3 , C N ), wherein each drive chain of the at least two available drive chains (C 1 , C 2 , C 3 , C N ) is configured to modify a pick-off signal to generate a drive signal including a different drive frequency and to generate a different drive mode of vibration in the at least one conduit ; with the one or more electronics including a drive chain selector configured to select a drive chain from the at least two available drive chains (C 1 , C 2 , C 3 , C N ), and provide the drive signal to the at least one drive ; wherein each drive chain (C 1 , C 2 , C 3 , C N ) is configured to modify at least one pick-off signal in a manner that reinforces a particular drive frequency and suppresses other drive frequencies. one or more electronics configured to receive at least one pick-off signal from the at least one pick-off , with the one or more electronics including at least two available drive chains (C 1 , C 2 , C 3 , C N ), wherein each drive chain of the at least two available drive chains (C 1 , C 2 , C 3 , C N ) is configured to modify a pick-off signal to generate a drive signal including a different drive frequency and to generate a different drive mode of vibration in the at least one conduit ; with the one or more electronics including a drive chain selector configured to select a drive chain from the at least two available drive chains (C 1 , C 2 , C 3 , C N ), and provide the drive signal to the at least one drive ; wherein each drive chain (C 1 , C 2 , C 3 , C N ) is configured to modify at least one pick-off signal in a manner that reinforces a particular drive frequency and suppresses other drive frequencies.
A cylindrical secondary battery comprising: a jelly-roll type electrode assembly, having a structure in which a long sheet type positive electrode and a long sheet type negative electrode are wound with a separator interposed between the positive electrode and the negative electrode; a cylindrical battery case (101; 200; 300) configured to receive the jelly-roll type electrode assembly (120; 420; 520); and a piezoelectric element (110; 210; 310; 410; 510) configured to generate electrical energy due to a volumetric expansion of the jelly-roll type electrode assembly caused by charging and discharging the jelly-roll type electrode assembly, wherein the piezoelectric element comprises: a negative pole configured to be directly connected to the cylindrical battery case (101; 200; 300), or to be directly connected to a negative electrode tab of the jelly-roll type electrode assembly , and a positive pole configured to be connected to a positive pole of a top cap of the cylindrical secondary battery, or to be connected to a positive electrode tab of the jelly-roll type electrode assembly (420; 520). a jelly-roll type electrode assembly, having a structure in which a long sheet type positive electrode and a long sheet type negative electrode are wound with a separator interposed between the positive electrode and the negative electrode; a cylindrical battery case (101; 200; 300) configured to receive the jelly-roll type electrode assembly (120; 420; 520); and a piezoelectric element (110; 210; 310; 410; 510) configured to generate electrical energy due to a volumetric expansion of the jelly-roll type electrode assembly caused by charging and discharging the jelly-roll type electrode assembly, wherein the piezoelectric element comprises: a negative pole configured to be directly connected to the cylindrical battery case (101; 200; 300), or to be directly connected to a negative electrode tab of the jelly-roll type electrode assembly , and a positive pole configured to be connected to a positive pole of a top cap of the cylindrical secondary battery, or to be connected to a positive electrode tab of the jelly-roll type electrode assembly (420; 520). a negative pole configured to be directly connected to the cylindrical battery case (101; 200; 300), or to be directly connected to a negative electrode tab of the jelly-roll type electrode assembly , and a positive pole configured to be connected to a positive pole of a top cap of the cylindrical secondary battery, or to be connected to a positive electrode tab of the jelly-roll type electrode assembly (420; 520).
A combination washer/dryer machine , comprising: a cabinet ; a tub positioned inside the cabinet , the tub having an inner surface; a drum that is rotatable inside the tub , the drum has an external surface; and a seal positioned between the external surface of the drum and the inner surface of the tub forming a seal gap between the seal and the drum or between the seal and the tub during both washing and drying operations, wherein the seal is configured to provide a flow restriction through the seal gap that minimizes drying air from bypassing the drum during the drying operation, wherein the tub includes a ring and the seal is positioned on the ring , characterized in that the ring includes a plurality of apertures that are covered by the seal during the washing operation and wherein the seal is moveable away from the ring during the drying operation to enable the drying air to pass through the apertures in the ring , and wherein the drying air passing through the apertures in the ring during the drying operation moves the seal towards the drum to reduce the seal gap between the seal and the drum . a cabinet ; a tub positioned inside the cabinet , the tub having an inner surface; a drum that is rotatable inside the tub , the drum has an external surface; and a seal positioned between the external surface of the drum and the inner surface of the tub forming a seal gap between the seal and the drum or between the seal and the tub during both washing and drying operations, wherein the seal is configured to provide a flow restriction through the seal gap that minimizes drying air from bypassing the drum during the drying operation, wherein the tub includes a ring and the seal is positioned on the ring , the ring includes a plurality of apertures that are covered by the seal during the washing operation and wherein the seal is moveable away from the ring during the drying operation to enable the drying air to pass through the apertures in the ring , and wherein the drying air passing through the apertures in the ring during the drying operation moves the seal towards the drum to reduce the seal gap between the seal and the drum .
A wiper arm , comprising: a fastening part having a fastening hole into which a pivot shaft arranged in a vehicle body is to be inserted; an arm head having the fastening part ; a shank connected to the arm head ; an arm piece in which a base end part is fixed to the shank and a front end part is connected to a wiper blade for wiping a wiping surface (S); a washer nozzle which is mounted on the arm piece and is configured to spray a washer liquid onto the wiping surface (S); and a hose which is connected to the washer nozzle and supplies the washer liquid to the washer nozzle ; wherein the hose is divided into a first hose disposed along the arm head and a second hose to be disposed within the vehicle body, the first hose and the second hose are connected in a manner that the washer liquid flows to each other through a joint member in which a flow path is formed; the wiper arm being characterized in that the arm head has an opening part which opens to a fastening part side; and the joint member is mounted on the arm head in a manner that a connection part of the joint member with the second hose penetrates the opening part . a fastening part having a fastening hole into which a pivot shaft arranged in a vehicle body is to be inserted; an arm head having the fastening part ; a shank connected to the arm head ; an arm piece in which a base end part is fixed to the shank and a front end part is connected to a wiper blade for wiping a wiping surface (S); a washer nozzle which is mounted on the arm piece and is configured to spray a washer liquid onto the wiping surface (S); and a hose which is connected to the washer nozzle and supplies the washer liquid to the washer nozzle ; wherein the hose is divided into a first hose disposed along the arm head and a second hose to be disposed within the vehicle body, the first hose and the second hose are connected in a manner that the washer liquid flows to each other through a joint member in which a flow path is formed; the wiper arm being characterized in that the arm head has an opening part which opens to a fastening part side; and the joint member is mounted on the arm head in a manner that a connection part of the joint member with the second hose penetrates the opening part .
A method of reconfiguring an intraocular lens (3; 340) for delivery, comprising providing the intraocular lens (3; 340) having a leading haptic (4; 341; 441) and an optic portion (2; 343; 443), wherein the intraocular lens (3; 340) is provided in an intraocular lens receiving region of a base (12; 310; 410) of an intraocular lens carrier (10; 300; 400) such that the leading haptic (4; 341; 441) is in an at-rest configuration relative to the optic portion (2; 343; 443), wherein the at-rest configuration is a curved configuration closely following the curvature of a periphery of the optic portion (2; 343; 443); characterised in that the method comprises the step of distally advancing a splay member (20; 320) arranged within a channel (15; 311) located in the base (12; 310; 410); and the splay member (20; 320) engaging and pushing a free end of the leading haptic (4; 341; 441) distally and towards a delivery device (30; 360) away from the optic portion (2; 343; 443).
Differential pressure sensor for a leak detection device comprising: - at least two bodies fastened to each other in which a cavity is created; - a membrane that is arranged between the two bodies and separates said cavity so as to define a test chamber in each one of said bodies ; - at least one electrode arranged in each one of the test chambers and facing said membrane so as to form therewith a capacitor; characterised in that said sensor comprises at least two seals (13a 1 , 13a 2 , 13b 1 , 13b 2 ) arranged between each of said bodies and the membrane to ensure the tightness of each of said test chambers ; and in that each of the bodies comprises at least one fluid duct opening between said seals (13a 1 , 13a 2 , 13b 1 , 13b 2 ), each of said ducts allowing to vary the pressure prevailing between said seals and to balance it with the pressure prevailing in the adjoining test chamber . - at least two bodies fastened to each other in which a cavity is created; - a membrane that is arranged between the two bodies and separates said cavity so as to define a test chamber in each one of said bodies ; - at least one electrode arranged in each one of the test chambers and facing said membrane so as to form therewith a capacitor; characterised in that said sensor comprises at least two seals (13a 1 , 13a 2 , 13b 1 , 13b 2 ) arranged between each of said bodies and the membrane to ensure the tightness of each of said test chambers ; and in that each of the bodies comprises at least one fluid duct opening between said seals (13a 1 , 13a 2 , 13b 1 , 13b 2 ), each of said ducts allowing to vary the pressure prevailing between said seals and to balance it with the pressure prevailing in the adjoining test chamber .
A copolymer of chlorotrifluoroethylene (CTFE) and vinyl chloride (VC) consisting essentially of chlorotrifluoroethylene monomeric units and vinyl chloride monomeric units, said copolymer having a Tg measured using DSC Q200 instrument at a 10 °C/min temperature increase of from 70°C to 87 °C.
A method of operating a user equipment, LTE , comprising: determining a timing for a serving cell; obtaining a location of a non-serving cell; determining a location of the UE; and estimating a timing for the non-serving cell based at least in part on the timing for the serving cell, the location of the non-serving cell and the location of the UE, wherein estimating the timing for the non-serving cell comprises: determining a first propagation delay between the UE and the serving cell; determining a second propagation delay between the LTE and the non-serving cell; and estimating the timing for the non-serving cell by adding the difference between the first and second propagation delays to the timing for the serving cell. determining a timing for a serving cell; obtaining a location of a non-serving cell; determining a location of the UE; and estimating a timing for the non-serving cell based at least in part on the timing for the serving cell, the location of the non-serving cell and the location of the UE, wherein estimating the timing for the non-serving cell comprises: determining a first propagation delay between the UE and the serving cell; determining a second propagation delay between the LTE and the non-serving cell; and estimating the timing for the non-serving cell by adding the difference between the first and second propagation delays to the timing for the serving cell. determining a first propagation delay between the UE and the serving cell; determining a second propagation delay between the LTE and the non-serving cell; and estimating the timing for the non-serving cell by adding the difference between the first and second propagation delays to the timing for the serving cell.
A variable pitch propeller vane for an aircraft turbine engine, this vane comprising a blade connected to a root , the root comprising a solid body housed in an annular barrel which extends around a pitch axis (A) of the vane, characterised in that the body comprises: - a free end located on the side opposite the blade , this free end being configured to cooperate in a form-fitting manner with a system for controlling the pitch of the vane, and comprising a cross-section, referred to as low section, which has a non-circular shape and a value Sb, - a stilt located on the side of the blade , this stilt comprising a cross-section, referred to as high section, which has a value Sh, and - a bulb located between the free end and the stilt , this bulb having in section a convex rounded shape extending between the free end and the stilt and comprising at the summit of this shape a cross-section, referred to as middle section, which has a maximum value Sm which is greater than Sh and Sb, and in that the barrel is attached to the body and covers and conforms to at least one portion of the bulb and the stilt , the barrel having a shape complementary in section to the bulb at the level of said middle section, and to the stilt at the level of said high section. - a free end located on the side opposite the blade , this free end being configured to cooperate in a form-fitting manner with a system for controlling the pitch of the vane, and comprising a cross-section, referred to as low section, which has a non-circular shape and a value Sb, - a stilt located on the side of the blade , this stilt comprising a cross-section, referred to as high section, which has a value Sh, and - a bulb located between the free end and the stilt , this bulb having in section a convex rounded shape extending between the free end and the stilt and comprising at the summit of this shape a cross-section, referred to as middle section, which has a maximum value Sm which is greater than Sh and Sb,
A pharmaceutical composition comprising an effective amount of ten RV peptide epitopes being conserved RV peptide epitopes recognized by RV-specific CD4 + antigen-experienced T cells and consisting of SEQ ID NOs:1-10, respectively, for use in inducing an immune response against a rhinovirus (RV) or for activating RV-specific CD4 + antigen-experienced T cells in a subject.
A method for melting a sample including at least one salt in a microwave cavity whose geometry is suitable for resonance according to a single mode of a stationary electromagnetic field, defining at least one local extremum of the electric or magnetic field in said cavity, in a spectral region comprised between 900 MHz and 3 GHz, said cavity comprising at least one movable reflective face , whose position can be adjusted so as to modify the geometry of the microwave cavity, said sample being arranged in a hollow insert , said insert being arranged at least partially in the cavity in spatial correspondence with said extremum, the material of said insert being transparent to microwaves , said method comprising at least the steps of: a) placing said sample(s) in said insert; b) emitting microwaves in said cavity at a frequency comprised in said spectral region; c) detecting the power reflected by the resonant cavity loaded with the sample and the insert, and d) adjusting at least one parameter selected from among: - the position of said or of at least one said movable reflective face; and - the frequency of the microwaves so as to minimise said detected power and wherein said sample is arranged in a container , said container being arranged in said insert, the material of said container being transparent to microwaves. a) placing said sample(s) in said insert; b) emitting microwaves in said cavity at a frequency comprised in said spectral region; c) detecting the power reflected by the resonant cavity loaded with the sample and the insert, and d) adjusting at least one parameter selected from among: - the position of said or of at least one said movable reflective face; and - the frequency of the microwaves so as to minimise said detected power and wherein said sample is arranged in a container , said container being arranged in said insert, the material of said container being transparent to microwaves. - the position of said or of at least one said movable reflective face; and - the frequency of the microwaves
An ink for use in a three-dimensional printing system comprising: 5-40 wt. % thiol monomer; 10-60 wt. % monomeric (meth)acrylate; and 5-60 wt. % oligomeric (meth)acrylate, based on the total weight of the ink, wherein the thiol monomer comprises pentaerythritol tetra(3-mercaptopropionate) (PETMP); or an ink for use in a three-dimensional printing system comprising: 5-40 wt. % thiol monomer; 5-40 wt. % ene monomer; and 10-60 wt. % (meth)acrylate monomer differing from the ene monomer, based on the total weight of the ink, wherein the thiol monomer comprises pentaerythritol tetra(3-mercaptopropionate) (PETMP). 10-60 wt. % monomeric (meth)acrylate; and 5-60 wt. % oligomeric (meth)acrylate, based on the total weight of the ink, wherein the thiol monomer comprises pentaerythritol tetra(3-mercaptopropionate) (PETMP); or an ink for use in a three-dimensional printing system comprising: 5-40 wt. % thiol monomer; 5-40 wt. % ene monomer; and 10-60 wt. % (meth)acrylate monomer differing from the ene monomer, based on the total weight of the ink, wherein the thiol monomer comprises pentaerythritol tetra(3-mercaptopropionate) (PETMP).