mhurhangee/ep-ind-claims huggingface dataset:
Device (1, 2) that is adapted to be put in different conditions, comprising: a plurality of units (13, 21) which are each containing hollow space, and which are each having portions which are located at opposite sides of the device; and a core (15; 16, 17) which is positioned between the portions of the units (13, 21) which are located at opposite sides of the device; characterized in that the device (1, 2) is adapted to at least have a heat-insulating function in one of the possible conditions thereof, wherein the units (13, 21) are insulating units of which the hollow space is suitable for containing a fluid such as air or water, wherein the core has heat-insulating properties; and wherein the device (1, 2) further comprises closing means (28, 30) for varying an effective flow-through area of a passage between the portions of the insulating units (13, 21) which are located at opposite sides of the device, for realizing a condition of the device (1, 2) in which an optimal heat-insulating function of the device (1, 2) is obtained by keeping the insulating units (13, 21) in a condition in which a flow of fluid from one side of the device (1, 2) to another is prevented, or a condition in which a flow of fluid is actually possible from one side of the device (1, 2) to another.
Pedal assembly (100, 900) for a video game or vehicle driving simulation, said pedal assembly (100, 900) comprising: - at least one pedal (116, 916), said or each pedal (116, 916) having a pressing zone for at least one foot, and - a frame (102, 902) comprising a first part (118, 918) supporting said pedal(s) (116, 916), which are mounted in a rotatable manner with respect to said frame (102, 902), said first part (117, 918) having a positioning face (108, 908) that is able to be positioned on the ground or a support, in a first stable position of the pedal assembly (100, 900), the first stable position being such that, as seen from the left-hand side of the pedal assembly (100, 900), said or each pedal (116, 916) pivots anticlockwise under the forces produced by said at least one foot to actuate said pedal (116, 916), said pedal assembly (100, 900) being characterized in that said frame (102, 902) has at least one second part (120, 920), said at least second part (120, 920) being mounted in a removable manner with respect to said first part (118, 918) or with respect to another of said second parts (120, 920), or said at least second part (120, 920) being mounted in a rotatable manner with respect to said first part (118, 918) or with respect to another of said second parts (120, 920), at least one of said second parts (120, 920) having a positioning face (110, 910) that can be positioned on the same ground or the same support, in a second stable position of the pedal assembly (100, 900), the second stable position being such that, as seen from the left-hand side of the pedal assembly (100, 900), said or each pedal (116, 916) pivots clockwise under the forces produced by said at least one foot to actuate said pedal (116, 916), - the pressing zone of the or each pedal (116, 916) being disposed, in each stable position, so as to be positioned substantially in the region of the metatarsal of said at least one foot. - at least one pedal (116, 916), said or each pedal (116, 916) having a pressing zone for at least one foot, and - a frame (102, 902) comprising a first part (118, 918) supporting said pedal(s) (116, 916), which are mounted in a rotatable manner with respect to said frame (102, 902), - the pressing zone of the or each pedal (116, 916) being disposed, in each stable position, so as to be positioned substantially in the region of the metatarsal of said at least one foot.
A system comprising: a microprocessor; and a computer readable medium, coupled with the microprocessor and comprising microprocessor readable and executable instructions that, when executed by the microprocessor, cause the microprocessor to: receive, from a user communication device, a first request to establish a first communication session with a contact center; identify, based on a machine learned model of prior communication sessions with the contact center, a first set of one or more sensors (106A-106N) that are external to the user communication device; receive first external sensor information, wherein the first external sensor information is from the first set of one or more sensors that are external to the user communication device; and route the first communication session in the contact center based on the received first external sensor information. a microprocessor; and a computer readable medium, coupled with the microprocessor and comprising microprocessor readable and executable instructions that, when executed by the microprocessor, cause the microprocessor to: receive, from a user communication device, a first request to establish a first communication session with a contact center; identify, based on a machine learned model of prior communication sessions with the contact center, a first set of one or more sensors (106A-106N) that are external to the user communication device; receive first external sensor information, wherein the first external sensor information is from the first set of one or more sensors that are external to the user communication device; and route the first communication session in the contact center based on the received first external sensor information. receive, from a user communication device, a first request to establish a first communication session with a contact center; identify, based on a machine learned model of prior communication sessions with the contact center, a first set of one or more sensors (106A-106N) that are external to the user communication device; receive first external sensor information, wherein the first external sensor information is from the first set of one or more sensors that are external to the user communication device; and route the first communication session in the contact center based on the received first external sensor information.
A single chain Fc polypeptide wherein the N- to C-terminal sequence is: a first CH2 domain linked via its C-terminus to the N-terminus of a first CH3 domain, and said first CH3 domain is linked at its C-terminus via an amino acid length linker comprising repeats of a sequence selected from GS, GSGGS, GGGGS and GGGS to the N-terminus of the second CH2 domain which is linked at its C-terminus to the N-terminus of second CH3 domain, wherein Fc domains, in said single chain Fc polypeptide, consist of two CH2 domains and two CH3 domains characterized in that said CH2 and CH3 domains form a functional Fc domain within the polypeptide chain, in which a first CH2 domain is dimerised with a second CH2 domain and a first CH3 domain is dimerised with a second CH3 domain within the polypeptide chain, and linked to the N-terminus of a first CH2 domain, of said single chain Fc polypeptide, is one biologically active molecule selected from the group consisting of: nucleic acids, carbohydrates, receptor proteins, avimers, adnectins, anticalins, phylomers, aptamers, hemostatic agents, cytokines and growth factors, interleukins, interferons, tumour necrosis factor-α, tumour necrosis factor-β and colony stimulating factors. a first CH2 domain linked via its C-terminus to the N-terminus of a first CH3 domain, and said first CH3 domain is linked at its C-terminus via an amino acid length linker comprising repeats of a sequence selected from GS, GSGGS, GGGGS and GGGS to the N-terminus of the second CH2 domain which is linked at its C-terminus to the N-terminus of second CH3 domain, wherein Fc domains, in said single chain Fc polypeptide, consist of two CH2 domains and two CH3 domains characterized in that said CH2 and CH3 domains form a functional Fc domain within the polypeptide chain, in which a first CH2 domain is dimerised with a second CH2 domain and a first CH3 domain is dimerised with a second CH3 domain within the polypeptide chain, and linked to the N-terminus of a first CH2 domain, of said single chain Fc polypeptide, is one biologically active molecule selected from the group consisting of: nucleic acids, carbohydrates, receptor proteins, avimers, adnectins, anticalins, phylomers, aptamers, hemostatic agents, cytokines and growth factors, interleukins, interferons, tumour necrosis factor-α, tumour necrosis factor-β and colony stimulating factors.
An oral care composition comprising: a quinone selected from alkyl-substituted benzoquinones, halo-substituted benzoquinones, alkyl-substituted hydroquinones and halo-substituted hydroquinones; and one or more antimicrobial agents selected from a zinc containing compound, a tin containing compound, tetrahydrocurcumin, a quaternary ammonium compound, a chlorophenol, and a combination of two or more thereof; wherein the quinone is provided in an amount effective to provide a synergistic increase in antimicrobial activity, and wherein at least one of said one or more antimicrobial agents is present at a concentration of from about 100 ppm to about 2000 ppm. a quinone selected from alkyl-substituted benzoquinones, halo-substituted benzoquinones, alkyl-substituted hydroquinones and halo-substituted hydroquinones; and one or more antimicrobial agents selected from a zinc containing compound, a tin containing compound, tetrahydrocurcumin, a quaternary ammonium compound, a chlorophenol, and a combination of two or more thereof;
A method of production of an automobile exhaust gas purification catalyst comprising a sintered support mainly comprised of ZrO 2 in which Rh is supported as a catalyst metal in a particulate state, said method comprising: a step of charging a support mainly comprised of ZrO 2 sintered under sintering conditions by applying an acid treatment and a base treatment, wherein the as sintered ZrO 2 will substantially not be charged in a catalyst metal supporting treatment solution, and a step of dipping said charged state support in a catalyst supporting treatment solution that includes a colloid of Rh as the catalyst metal to adsorb the colloid of Rh on said support, wherein the pH value of the treatment solution is such that the zeta potential of the support is a large positive value and the zeta potential of the colloid of Rh is a large 20 negative value. a step of charging a support mainly comprised of ZrO 2 sintered under sintering conditions by applying an acid treatment and a base treatment, wherein the as sintered ZrO 2 will substantially not be charged in a catalyst metal supporting treatment solution, and a step of dipping said charged state support in a catalyst supporting treatment solution that includes a colloid of Rh as the catalyst metal to adsorb the colloid of Rh on said support, wherein the pH value of the treatment solution is such that the zeta potential of the support is a large positive value and the zeta potential of the colloid of Rh is a large 20 negative value.
Device for producing a ground covering, comprising at least one honeycomb structure provided with a plurality of cells which are each delimited by walls (20, 21, 22, 23) and an upper opening plane and each comprise at least one base and communication passages from one cell to another, each cell comprising a support which is intended to support a covering element, such as a paving stone or a tile, to be arranged in the cell, characterized in that the support comprises a central region which is central in the cell, as well as connecting elements (26-2 to 26-9) which connect the central region to the walls in the form of rigid connecting arms, and in that cavities are provided under the connecting elements (26-2 to 26-9) which form bridges.
A drive arrangement for a cleaning device for a cylinder tube of a heat exchanger (13, 212), the drive arrangement comprising: - a threaded spindle which is designed to be arranged in the cylinder tube coaxially with the cylinder tube of the heat exchanger in an axial direction, and to displace a cleaning element in the cylinder tube in the axial direction via rotation; - a coupling element (30, 210) with a first rotor, wherein the first rotor can be rigidly mechanically connected to the threaded spindle; characterized in that the coupling element (30, 210) has a second rotor which is coupled to the first rotor, wherein the first rotor can be connected to the cylinder tube in a fluid-tight and/or pressure-tight manner, and wherein the second rotor can be mechanically connected to a drive element such that the threaded spindle is rotatable via the second rotor and the first rotor by means of the drive element. - a threaded spindle which is designed to be arranged in the cylinder tube coaxially with the cylinder tube of the heat exchanger in an axial direction, and to displace a cleaning element in the cylinder tube in the axial direction via rotation; - a coupling element (30, 210) with a first rotor, wherein the first rotor can be rigidly mechanically connected to the threaded spindle;
A method for transmitting data from a primary radio station to a secondary radio station, comprising at the primary station signalling to the secondary station by means of a signalling message (11, 311) that a data message (12, 312) is to be received, and at the primary station transmitting the data message, characterized in that the time of transmission of the data message relative to the time of the transmission of the signalling message depends on a state of the secondary station.
A method for identifying a concentration of a urea of a urea solution, comprising the steps of: applying a pulse voltage for a predetermined time to a urea concentration identifying sensor heater including a heater and an identifying liquid temperature sensor provided in the vicinity of the heater; heating an identified urea solution by the heater; and identifying the concentration of the urea on the basis of a voltage output difference V0 corresponding to a temperature difference between an initial temperature and a peak temperature in the identifying liquid temperature sensor; wherein the voltage output difference V0 is equal to a voltage difference between an average initial voltage V1 obtained by sampling an initial voltage before application of the pulse voltage at a predetermined number of times and an average peak voltage V2 obtained by sampling, at a predetermined time after the application of the pulse voltage, a peak voltage at a predetermined number of times, that is, V 0 = V 2 − V 1. applying a pulse voltage for a predetermined time to a urea concentration identifying sensor heater including a heater and an identifying liquid temperature sensor provided in the vicinity of the heater; heating an identified urea solution by the heater; and identifying the concentration of the urea on the basis of a voltage output difference V0 corresponding to a temperature difference between an initial temperature and a peak temperature in the identifying liquid temperature sensor; wherein the voltage output difference V0 is equal to a voltage difference between an average initial voltage V1 obtained by sampling an initial voltage before application of the pulse voltage at a predetermined number of times and an average peak voltage V2 obtained by sampling, at a predetermined time after the application of the pulse voltage, a peak voltage at a predetermined number of times, that is, V 0 = V 2 − V 1.
A sleeve (10;110) for protecting elongate members and for inhibiting heat radiation outwardly from at least a portion of the sleeve, comprising: an elongate body having a wall (14; 114) extending along a longitudinal axis of said sleeve (10;110) between opposite ends (18, 20; 118; 120) of said sleeve, said body being constructed from one or more yarns interlinked with one another by a plurality of knit stitches; and at least one opening (22; 122) integrally knit in said body between said opposite ends and diametrically opposite said wall (14; 114), said wall providing a thermal barrier to heat radiation radially outwardly from said wall and said opening (22; 122) providing a path promoting heat radiation radially outwardly from said opening, characterised in that said body has a plurality of strap portions (38, 40: 138, 140) extending substantially transverse to said longitudinal axis and said wall (14; 114) has opposite free edges (34, 36; 134, 136) substantially parallel to said longitudinal axis, said at least one opening (22; 122) being bounded peripherally by said strap portions (38, 40; 138, 140) and said opposite free edges. an elongate body having a wall (14; 114) extending along a longitudinal axis of said sleeve (10;110) between opposite ends (18, 20; 118; 120) of said sleeve, said body being constructed from one or more yarns interlinked with one another by a plurality of knit stitches; and at least one opening (22; 122) integrally knit in said body between said opposite ends and diametrically opposite said wall (14; 114), said wall providing a thermal barrier to heat radiation radially outwardly from said wall and said opening (22; 122) providing a path promoting heat radiation radially outwardly from said opening, characterised in that said body has a plurality of strap portions (38, 40: 138, 140) extending substantially transverse to said longitudinal axis and said wall (14; 114) has opposite free edges (34, 36; 134, 136) substantially parallel to said longitudinal axis, said at least one opening (22; 122) being bounded peripherally by said strap portions (38, 40; 138, 140) and said opposite free edges.
A carrier assembly for an operating unit of an agricultural machine, the carrier assembly including a carrier arm, a suspension system for suspending an operating unit from the carrier arm, a mounting structure for mounting the carrier arm on a carrier vehicle, a pivot mechanism that enables pivoting movement of the carrier arm relative to the mounting structure, and a first actuator that drives pivoting movement of the carrier arm between a working position and a transport position, wherein the carrier assembly further includes a releasable locking mechanism (166, 170) for locking the carrier arm in the transport position, the locking mechanism including a first locking element carried by the mounting structure and a second locking element carried by the carrier arm, which is engageable with the first locking element when the carrier arm is in the transport position, and wherein the carrier arm includes an inner part, an outer part that can be telescopically extended and retracted relative to the inner part, and a second actuator that drives the outer part to adjust the length of the carrier arm; characterised in that the second locking element is carried by the outer part of the carrier arm and is configured to engage the first locking element when the outer part of the carrier arm is fully retracted relative to the inner part, and to disengage the first locking element when the outer part of the carrier arm is extended telescopically relative to the inner part.
A calibration method for a magnetic particle imaging system to perform magnetic particle imaging of a field of view including the steps of; • moving a calibration scene: ∘ which has distributed nanoparticle samples inside its volume, larger than the field of view of the MPI system, and ∘ which includes a single tube of arbitrary path traversing the calibration scene, for filling or emptying the tube with nanoparticles, ∘ and wherein the moving is linearly in one or more direction(s) and/or rotating about one or more axes of the calibration scene by means of a mechanical system, • scanning the field free region in the field of view and acquiring calibration measurement data at a plurality of positions of the calibration scene, • reconstructing the system matrix with compressed sensing methods by using the measurement data and the position information of the calibration scene during data acquisition. • moving a calibration scene: ∘ which has distributed nanoparticle samples inside its volume, larger than the field of view of the MPI system, and ∘ which includes a single tube of arbitrary path traversing the calibration scene, for filling or emptying the tube with nanoparticles, ∘ and wherein the moving is linearly in one or more direction(s) and/or rotating about one or more axes of the calibration scene by means of a mechanical system, ∘ which has distributed nanoparticle samples inside its volume, larger than the field of view of the MPI system, and ∘ which includes a single tube of arbitrary path traversing the calibration scene, for filling or emptying the tube with nanoparticles, ∘ and wherein the moving is linearly in one or more direction(s) and/or rotating about one or more axes of the calibration scene by means of a mechanical system, • scanning the field free region in the field of view and acquiring calibration measurement data at a plurality of positions of the calibration scene, • reconstructing the system matrix with compressed sensing methods by using the measurement data and the position information of the calibration scene during data acquisition.
A method of preparing immune cells, preferably T-cells, for immunotherapy against pathological cells comprising the step of: (a) Genetically inactivating or mutating a gene encoding the antigen marker CD38 in an immune cell thereby resulting in the absence of the CD38 antigen marker on the surface of the immune cell; (b) Expressing into said immune cell a transgene encoding a chimeric antigen receptor directed against said CD38 antigen marker, wherein said anti-CD38 specific chimeric antigen receptor has a polypeptide structure comprising an extra cellular ligand binding-domain comprising VH and VL from a monoclonal anti-CD38 antibody, a FcγRIIIα, CD8α or IgG1 hinge, a CD8α transmembrane domain, a cytoplasmic domain including a CD3 zeta signaling domain and a co-stimulatory domain from 4-1BB, wherein said V H and V L comprise a polypeptide sequence displaying at least 90 %, at least 95%, at least 98% or at least 99% identity to respectively SEQ ID NO. 14 and 10 (25A10), SEQ ID NO. 62 and 58 (28F5), SEQ ID NO. 54 and 50 (13F11), SEQ ID NO. 30 and 26 (16B5), SEQ ID NO. 38 and 34 (10F7), SEQ ID NO.46 and 42 (27B6), SEQ ID NO. 22 and 18 (29B4), SEQ ID NO. 132 and 133 (2C2), SEQ ID NO. 134 and 135 (5G9), SEQ ID NO. 142 and 143 (9E2), SEQ ID NO. 144 and 145(28B9), SEQ ID NO. 146 and 147 (26D8), SEQ ID NO. 148 and 149 (15D1), or SEQ ID NO. 150 and 151 (23F2). (a) Genetically inactivating or mutating a gene encoding the antigen marker CD38 in an immune cell thereby resulting in the absence of the CD38 antigen marker on the surface of the immune cell; (b) Expressing into said immune cell a transgene encoding a chimeric antigen receptor directed against said CD38 antigen marker, wherein said anti-CD38 specific chimeric antigen receptor has a polypeptide structure comprising an extra cellular ligand binding-domain comprising VH and VL from a monoclonal anti-CD38 antibody, a FcγRIIIα, CD8α or IgG1 hinge, a CD8α transmembrane domain, a cytoplasmic domain including a CD3 zeta signaling domain and a co-stimulatory domain from 4-1BB, wherein said V H and V L comprise a polypeptide sequence displaying at least 90 %, at least 95%, at least 98% or at least 99% identity to respectively SEQ ID NO. 14 and 10 (25A10), SEQ ID NO. 62 and 58 (28F5), SEQ ID NO. 54 and 50 (13F11), SEQ ID NO. 30 and 26 (16B5), SEQ ID NO. 38 and 34 (10F7), SEQ ID NO.46 and 42 (27B6), SEQ ID NO. 22 and 18 (29B4), SEQ ID NO. 132 and 133 (2C2), SEQ ID NO. 134 and 135 (5G9), SEQ ID NO. 142 and 143 (9E2), SEQ ID NO. 144 and 145(28B9), SEQ ID NO. 146 and 147 (26D8), SEQ ID NO. 148 and 149 (15D1), or SEQ ID NO. 150 and 151 (23F2).