mhurhangee/patent-ind-claim-en huggingface dataset:
System for inductive soldering, comprising: - at least one contact element , which contains a second solder connection surface, - at least one conductor structure that is arranged on a nonmetallic plate and which contains a first solder connection surface , wherein the first and second solder connection surfaces are suitable for forming a solder joint with the solder from a solder deposit , and a - device for inductively soldering of the at least one contact element to the at least one conductor structure on the nonmetallic plate , comprising: - means for fastening a plate during the soldering operation, - at least one soldering tool having at least one induction loop or induction coil suitable for emitting a magnetic field, - means for mutually positioning the soldering tool and a ferromagnetic contact element , such that the switched-on magnetic field of the soldering tool heats the contact element , at least in sections, - a generator that is suitable for generating an alternating voltage with a frequency of up to 1500 kHz and that can be connected to the induction loop or the induction coil, characterized in that the contact element is ferromagnetic, and wherein, apart from the induction loop or the induction coil, the soldering tool includes no components for directing and guiding the field lines of the magnetic field, and wherein the dimensions of the at least one induction loop or induction coil correspond substantially to the length and width of the contact element 14 above the solder joint . - at least one contact element , which contains a second solder connection surface, - at least one conductor structure that is arranged on a nonmetallic plate and which contains a first solder connection surface , wherein the first and second solder connection surfaces are suitable for forming a solder joint with the solder from a solder deposit , and a - device for inductively soldering of the at least one contact element to the at least one conductor structure on the nonmetallic plate , comprising: - means for fastening a plate during the soldering operation, - at least one soldering tool having at least one induction loop or induction coil suitable for emitting a magnetic field, - means for mutually positioning the soldering tool and a ferromagnetic contact element , such that the switched-on magnetic field of the soldering tool heats the contact element , at least in sections, - a generator that is suitable for generating an alternating voltage with a frequency of up to 1500 kHz and that can be connected to the induction loop or the induction coil, characterized in that the contact element is ferromagnetic, and wherein, apart from the induction loop or the induction coil, the soldering tool includes no components for directing and guiding the field lines of the magnetic field, and wherein the dimensions of the at least one induction loop or induction coil correspond substantially to the length and width of the contact element 14 above the solder joint .
A dismounting tool for disengaging ball joint connections on suspension and steering assemblies, said dismounting tool comprising: an actuator comprising a first receiving portion and a second receiving portion , said actuator being operable to force said first and second receiving portions towards each other along an actuation axis ; a first tool member comprising an anvil portion with an engaging surface ; a second tool member comprising a bifurcated portion with a supporting surface ; wherein each of said first tool member and said second tool member comprises a through hole , and wherein said first tool member and said second tool member are detachably mounted to said first receiving portion and said second receiving portion such that said through holes are arranged coaxially about said actuation axis, and such that said engaging surface faces said supporting surface; and wherein, upon actuation, said actuator is configured to move said first and second tool members towards each other along said actuation axis. an actuator comprising a first receiving portion and a second receiving portion , said actuator being operable to force said first and second receiving portions towards each other along an actuation axis ; a first tool member comprising an anvil portion with an engaging surface ; a second tool member comprising a bifurcated portion with a supporting surface ; wherein each of said first tool member and said second tool member comprises a through hole , and wherein said first tool member and said second tool member are detachably mounted to said first receiving portion and said second receiving portion such that said through holes are arranged coaxially about said actuation axis, and such that said engaging surface faces said supporting surface; and wherein, upon actuation, said actuator is configured to move said first and second tool members towards each other along said actuation axis.
A method for lubricating a transmission having an electric or a hybrid-electric motor, the method comprising: lubricating a transmission having an electric or a hybrid-electric motor with a lubricant; the lubricant including a poly(meth)acrylate copolymer and a solvent system including a base oil component blended with a branched diester component, the solvent system having 10 to 50 weight percent of the branched diester component; the base oil component including one or more oils selected from Group I to Group V base oils; and the poly(meth)acrylate copolymer has a weight average molecular weight of 50,000 g/mol or less and is derived from C1 to C4 linear or branched short chain alkyl (meth)acrylates and C12 to C20 linear or branched long chain alkyl (meth)acrylates; and wherein the lubricant has an electrical conductivity measured per ASTM D2624-15 at 75°C of 80,000 pS/m or less and a thermal conductivity measured per ASTM D7896-14 at 80°C of 134 mW/m*K or more; wherein the lubricating composition includes 5 to 40 weight percent of the branched diester and 2.5 to 17.5 weight percent of the copolymer viscosity index improver; wherein the branched diester component is a reaction product of one or more dicarboxylic acids having an internal carbon chain length of 6 to 10 carbons and one or more alcohols having a branched carbon chain length of 6 to 12 carbons; wherein if a Group V oil is used as a base oil component of the solvent system, said Group V oil does not contain the branched diester component of the solvent system. lubricating a transmission having an electric or a hybrid-electric motor with a lubricant; the lubricant including a poly(meth)acrylate copolymer and a solvent system including a base oil component blended with a branched diester component, the solvent system having 10 to 50 weight percent of the branched diester component; the base oil component including one or more oils selected from Group I to Group V base oils; and the poly(meth)acrylate copolymer has a weight average molecular weight of 50,000 g/mol or less and is derived from C1 to C4 linear or branched short chain alkyl (meth)acrylates and C12 to C20 linear or branched long chain alkyl (meth)acrylates; and wherein the lubricant has an electrical conductivity measured per ASTM D2624-15 at 75°C of 80,000 pS/m or less and a thermal conductivity measured per ASTM D7896-14 at 80°C of 134 mW/m*K or more; wherein the lubricating composition includes 5 to 40 weight percent of the branched diester and 2.5 to 17.5 weight percent of the copolymer viscosity index improver; wherein the branched diester component is a reaction product of one or more dicarboxylic acids having an internal carbon chain length of 6 to 10 carbons and one or more alcohols having a branched carbon chain length of 6 to 12 carbons; wherein if a Group V oil is used as a base oil component of the solvent system, said Group V oil does not contain the branched diester component of the solvent system.
An in vitro method of increasing anti-inflammatory activity of a reference glycoprotein preparation, the method comprising: providing a reference glycoprotein preparation comprising glycoproteins comprising an IgG Fc region; sialylating the branched glycans on the Fc region on the α1-3 arm of a plurality of said branched glycans to produce a sialylated glycoprotein preparation; measuring in said sialylated glycoprotein preparation the level of said branched glycans having a sialic acid on the α1-3 arm and processing said sialylated glycoprotein preparation into a pharmaceutical preparation if the level of branched glycans having a sialic acid on the α1-3 arm meets a predetermined level; wherein said sialylated glycoprotein preparation has an increased level of anti-inflammatory activity relative to the level of anti-inflammatory activity of said reference glycoprotein preparation; and wherein the step of sialylating comprises contacting the reference glycoprotein preparation with a sialyltransferase enzyme, wherein the sialyltransferase enzyme is an ST6Gal enzyme prepared by expressing the enzyme in CHO cells and purifying the enzyme. providing a reference glycoprotein preparation comprising glycoproteins comprising an IgG Fc region; sialylating the branched glycans on the Fc region on the α1-3 arm of a plurality of said branched glycans to produce a sialylated glycoprotein preparation; measuring in said sialylated glycoprotein preparation the level of said branched glycans having a sialic acid on the α1-3 arm and processing said sialylated glycoprotein preparation into a pharmaceutical preparation if the level of branched glycans having a sialic acid on the α1-3 arm meets a predetermined level; wherein said sialylated glycoprotein preparation has an increased level of anti-inflammatory activity relative to the level of anti-inflammatory activity of said reference glycoprotein preparation; and wherein the step of sialylating comprises contacting the reference glycoprotein preparation with a sialyltransferase enzyme, wherein the sialyltransferase enzyme is an ST6Gal enzyme prepared by expressing the enzyme in CHO cells and purifying the enzyme.
An ultrasound imaging apparatus for identifying anatomical objects in a field of view , comprising: - an image interface for receiving 3D medical image data of a patient , - a segmentation unit for segmenting anatomical objects of the patient in the 3D medical image data and for providing segmentation data of the anatomical obj ects, - an ultrasound acquisition unit including an ultrasound probe for acquiring ultrasound data of the patient, - a position determining unit for determining an initial position of the ultrasound probe , wherein the position determining unit includes a calibration unit adapted to determine the initial position of the ultrasound probe as a calibrated position with respect to the segmentation data on the basis of anatomical features in the ultrasound data of the patient acquired at the initial position of the ultrasound probe, the initial position of the ultrasound probe and the segmentation data , and wherein the position determining unit is further configured to determine a current position of the ultrasound probe with respect to the calibrated position by detecting a distance and a direction of movement of the ultrasound probe with respect to the calibrated position, and - an identification unit for identifying the anatomical objects within the field of view of the ultrasound probe on the basis of the segmentation data and the current position of the ultrasound probe with respect to the calibrated position. - an image interface for receiving 3D medical image data of a patient , - a segmentation unit for segmenting anatomical objects of the patient in the 3D medical image data and for providing segmentation data of the anatomical obj ects, - an ultrasound acquisition unit including an ultrasound probe for acquiring ultrasound data of the patient, - a position determining unit for determining an initial position of the ultrasound probe , wherein the position determining unit includes a calibration unit adapted to determine the initial position of the ultrasound probe as a calibrated position with respect to the segmentation data on the basis of anatomical features in the ultrasound data of the patient acquired at the initial position of the ultrasound probe, the initial position of the ultrasound probe and the segmentation data , and wherein the position determining unit is further configured to determine a current position of the ultrasound probe with respect to the calibrated position by detecting a distance and a direction of movement of the ultrasound probe with respect to the calibrated position, and - an identification unit for identifying the anatomical objects within the field of view of the ultrasound probe on the basis of the segmentation data and the current position of the ultrasound probe with respect to the calibrated position.
Closure device comprising: - a supporting plate , - an actuating lever , in which a connecting portion and a gripping portion are defined, said connecting portion of said actuating lever being pivotally connected to said supporting plate by means of one or more first connecting pins ; - a tensioning member which, at a first one of its ends, is connected to said connecting portion of said actuating lever by means of one or more second connecting pins and which is provided with hooking means at its opposite end, and - an anchoring member provided with retaining means , said hooking means of said tensioning member being arranged for selectively engaging said retaining means of said anchoring member, wherein said one or more first connecting pins and said one or more second connecting pins are made of metal wire, characterized in that said connecting portion of said actuating lever comprises a body made of plastic material and in that at least one of said one or more second connecting pins comprises an extension which forms at least a portion of said gripping portion of said actuating lever , said extension being made of metal wire as well. - a supporting plate , - an actuating lever , in which a connecting portion and a gripping portion are defined, said connecting portion of said actuating lever being pivotally connected to said supporting plate by means of one or more first connecting pins ; - a tensioning member which, at a first one of its ends, is connected to said connecting portion of said actuating lever by means of one or more second connecting pins and which is provided with hooking means at its opposite end, and - an anchoring member provided with retaining means , said hooking means of said tensioning member being arranged for selectively engaging said retaining means of said anchoring member,
A pharmaceutical composition comprising an IL-13Ra2 peptide, an EphA2 peptide, a survivin peptide, and a WT1 peptide, wherein: (a) the IL-13Ra2 peptide comprises any one of SEQ ID NOs:1-4, the EphA2 peptide comprises SEQ ID NO:6, the survivin peptide comprises SEQ ID NO:7, and the WT1 peptide comprises SEQ ID NO:8; preferably wherein: (b) one or more of the peptides are loaded on dendritic cells; and/or (c) the pharmaceutical composition further comprises an adjuvant, wherein the adjuvant is preferably Montanide ISA-51. (a) the IL-13Ra2 peptide comprises any one of SEQ ID NOs:1-4, the EphA2 peptide comprises SEQ ID NO:6, the survivin peptide comprises SEQ ID NO:7, and the WT1 peptide comprises SEQ ID NO:8; preferably wherein: (b) one or more of the peptides are loaded on dendritic cells; and/or (c) the pharmaceutical composition further comprises an adjuvant,
Device for feeding bristle bundles for the production of bristle products, in particular toothbrushes, wherein the device has at least one perforated plate having at least one hole array made of receiving holes into which the bristle bundles can be transported by means of a flow generated by a vacuum, and at least one baffle plate arranged downstream of the perforated plate , which baffle plate has at least one baffle surface as a stop for bristle bundles to be transported into the receiving holes of the perforated plate , characterized in that the baffle plate has an aerodynamic shape and the device has a housing with a receptacle for the baffle plate , wherein the receptacle has a streamlined inner contour corresponding to the aerodynamically shaped baffle plate .
Motor vehicle , having: - a control device that has a first driving mode in which the control device independently performs longitudinal guidance and/or transverse guidance of the motor vehicle , and - an operating device that is designed to detect at least one operating action performed by a user of the motor vehicle by way of an operating object on a touch-sensitive input surface , wherein the control device is designed, in the first driving mode , to detect at least one driving situation in which a decision of the user is required for continuation of the first driving mode , and to receive an operating input relating to the decision of the user in each case via the input surface , characterized in that the operating device is designed to determine a size of a surface area of the input surface touched simultaneously by the operating object and, on the basis of the determined size, to deactivate the first driving mode at the control device and to activate a second driving mode in which longitudinal guidance and transverse guidance are to be performed by the user. - a control device that has a first driving mode in which the control device independently performs longitudinal guidance and/or transverse guidance of the motor vehicle , and - an operating device that is designed to detect at least one operating action performed by a user of the motor vehicle by way of an operating object on a touch-sensitive input surface ,
A method , comprising: during a boot of a system operating a basic input/output system, BIOS, detecting (250; 350) a mismatch between a member of a set of active BIOS variables and a respective member of a set of saved BIOS variables; validating (260; 360) queued updates describing changes made to the set of saved BIOS variables previously applied to the set of active BIOS variables; applying (270; 370) the queued updates to the set of saved BIOS variables to create a set of updated BIOS variables; updating (290; 390) the saved BIOS variables when the set of updated BIOS variables and the set of active BIOS variables match, where the set of saved BIOS variables is updated to the set of active BIOS variables; and taking (295; 395) a security action when the set of updated BIOS variables and the set of active BIOS variables differ. during a boot of a system operating a basic input/output system, BIOS, detecting (250; 350) a mismatch between a member of a set of active BIOS variables and a respective member of a set of saved BIOS variables; validating (260; 360) queued updates describing changes made to the set of saved BIOS variables previously applied to the set of active BIOS variables; applying (270; 370) the queued updates to the set of saved BIOS variables to create a set of updated BIOS variables; updating (290; 390) the saved BIOS variables when the set of updated BIOS variables and the set of active BIOS variables match, where the set of saved BIOS variables is updated to the set of active BIOS variables; and taking (295; 395) a security action when the set of updated BIOS variables and the set of active BIOS variables differ.
Working device with a drive motor , a fan impeller for delivering cooling air for the drive motor , and a working unit which is driven by the drive motor , the fan impeller being arranged in a fan space which is delimited at least partially by a circumferential wall , a first side wall and a second side wall , the fan space having an outlet opening for the delivered cooling air, the spacing (a) of the circumferential wall from the circumference of the fan impeller increasing in the flow direction of the cooling air in the direction of the outlet opening at least over a region of the circumference of the fan impeller , the first side wall lying between the drive motor and the second side wall , and the second side wall being adjoined by a connection structure which comprises the working unit , characterized in that at least one connecting strut is provided which protrudes through the fan space between the circumference of the fan impeller and the circumferential wall and connects the first side wall to the second side wall , and in that the connection structure is screwed fixedly to the second side wall via at least one fastening screw , the spacing (g) of the centre axis of the fastening screw from the rotational axis of the fan impeller being smaller than half the diameter (h) of the fan impeller .
A method for finding an operating point of an electric motor comprising the steps of: generating a perturbation signal; combining said perturbation signal with a current magnitude related to said motor or combining said perturbation signal with a power magnitude related to a drive system of said motor, yielding a combined signal, wherein said power magnitude is obtained at least partly using measurements of current or voltage; characterised by the step of: sending, based on said combined signal, a flux adjustment signal to adjust a flux of said motor to approach an optimum operating point; and adding the flux adjustment signal to a flux magnitude reference signal. generating a perturbation signal; combining said perturbation signal with a current magnitude related to said motor or combining said perturbation signal with a power magnitude related to a drive system of said motor, yielding a combined signal, wherein said power magnitude is obtained at least partly using measurements of current or voltage; sending, based on said combined signal, a flux adjustment signal to adjust a flux of said motor to approach an optimum operating point; and adding the flux adjustment signal to a flux magnitude reference signal.
Shaped body which contains a catalytically active material and which comprises a catalytically active region and a porous coating which is present on the catalytically active region, wherein - at least 75% by weight of the catalytically active material of the shaped body are present in the catalytically active region and - the porous coating and the catalytically active region satisfy the following condition: Θ PB 1.5 × d PB × d KB + 150 nm / Θ KB 1.5 × d KB × d PB + 150 nm < 1.0 where Θ PB is the porosity of the porous coating; d PB is the average pore diameter, in nm, of the porous coating; Θ KB is the porosity of the catalytically active region; d KB is the average pore diameter, in nm, of the catalytically active region. - at least 75% by weight of the catalytically active material of the shaped body are present in the catalytically active region and - the porous coating and the catalytically active region satisfy the following condition: Θ PB 1.5 × d PB × d KB + 150 nm / Θ KB 1.5 × d KB × d PB + 150 nm < 1.0 where Θ PB is the porosity of the porous coating; d PB is the average pore diameter, in nm, of the porous coating; Θ KB is the porosity of the catalytically active region; d KB is the average pore diameter, in nm, of the catalytically active region. Θ PB is the porosity of the porous coating; d PB is the average pore diameter, in nm, of the porous coating; Θ KB is the porosity of the catalytically active region; d KB is the average pore diameter, in nm, of the catalytically active region.