mhurhangee/patent-ind-claim-en huggingface dataset:
An insertion device for inserting a catheter into a body of a patient, comprising: a housing in which at least a portion of the catheter is initially disposed; a needle distally extending from the housing, at least a portion of the catheter predisposed over the needle; a guidewire ; a guidewire advancement assembly including a first user engagement component configured for thumb or finger application by a user for selectively distally advancing the distal end of the guidewire out a distal opening of the needle in preparation for distal advancement of the catheter; and a catheter advancement assembly including a second user engagement component configured for thumb or finger application by the user for selectively advancing the catheter in a distal direction, wherein the catheter advancement assembly is configured such that the user can begin to advance the second user component after advancing the first user engagement component without substantially re-positioning the thumb or finger used for the guidewire and catheter advancement, wherein the first user engagement component is distally slidable to a distal termination point that is proximate a proximal commencement point of the second user engagement component. a housing in which at least a portion of the catheter is initially disposed; a needle distally extending from the housing, at least a portion of the catheter predisposed over the needle; a guidewire ; a guidewire advancement assembly including a first user engagement component configured for thumb or finger application by a user for selectively distally advancing the distal end of the guidewire out a distal opening of the needle in preparation for distal advancement of the catheter; and a catheter advancement assembly including a second user engagement component configured for thumb or finger application by the user for selectively advancing the catheter in a distal direction, wherein the catheter advancement assembly is configured such that the user can begin to advance the second user component after advancing the first user engagement component without substantially re-positioning the thumb or finger used for the guidewire and catheter advancement, wherein the first user engagement component is distally slidable to a distal termination point that is proximate a proximal commencement point of the second user engagement component.
Rear part for a utility vehicle , wherein the rear part comprises a coupling module for fixed coupling of the rear part to a front part of the utility vehicle , a floor which extends in a planar manner in the longitudinal and width direction of the rear part , a superstructure which is erected over the floor and which delimits a loading compartment for goods which are intended to be transported, and at least one functional module which is arranged on the lower side of the floor facing away from the superstructure , characterised in that the coupling module and the respective functional module are secured directly to the floor and the floor and the superstructure form a self-supporting unit which bridges the distance between the coupling module and the respective functional module in an unsupported manner.
An anti-KPC-type carbapenemase antibody, wherein the anti-KPC-type carbapenemase antibody is: an antibody 1HG11 comprising a light chain variable region and a heavy chain variable region, wherein the light chain variable region comprises complementary-determining region 1 (CDR1) shown in SEQ ID NO: 1, CDR2 shown in SEQ ID NO: 2, and CDR3 shown in SEQ ID NO: 3; and the heavy chain variable region comprises CDR1 shown in SEQ ID NO: 4, CDR2 shown in SEQ ID NO: 5, and CDR3 shown in SEQ ID NO: 6, the light chain variable region has an amino acid sequence shown in SEQ ID NO: 7, and the heavy chain variable region has an amino acid sequence shown in SEQ ID NO: 9; or, an antibody 1HD6 comprising a light chain variable region and a heavy chain variable region, wherein the light chain variable region comprises CDR1 shown in SEQ ID NO: 11, CDR2 shown in SEQ ID NO: 12, and CDR3 shown in SEQ ID NO: 13; and the heavy chain variable region comprises CDR1 shown in SEQ ID NO: 14, CDR2 shown in SEQ ID NO: 15, and CDR3 shown in SEQ ID NO: 16, the light chain variable region has an amino acid sequence shown in SEQ ID NO: 17, and the heavy chain variable region has an amino acid sequence shown in SEQ ID NO: 19.
A chip assembly for a camera , comprising: a circuit board ; a chip provided to the circuit board and stacked with the circuit board ; and a conductive wire having a first end electrically coupled to the circuit board and a second end electrically coupled to the chip , a partial segment of the conductive wire attached to a side wall face of the chip , characterized in that the side wall face of the chip has a groove, and the conductive wire is embedded in the groove. a circuit board ; a chip provided to the circuit board and stacked with the circuit board ; and a conductive wire having a first end electrically coupled to the circuit board and a second end electrically coupled to the chip , a partial segment of the conductive wire attached to a side wall face of the chip , characterized in that the side wall face of the chip has a groove, and the conductive wire is embedded in the groove.
A genetically engineered microorganism that produces muconic acid from a non-aromatic carbon source comprising at least one exogenous gene coding for 3,4-dihydroxybenzoic acid decarboxylase and at least one gene that codes for a protein that increases the activity of said 3,4-dihydroxybenzoic acid decarboxylase, selected from a KpdB protein encoded by a kpdb gene, and a UbiX protein encoded by a ubiX gene.
A process for the manufacture of a mineral pigment that provides high gloss and improves ink drying, image formation and color density such that it is suitable for use in glossy ink jet printing applications by treating an unground mineral composition, wherein the process comprises the sequential steps of: A. obtaining a beneficiated, unground mineral composition selected from hydrous or calcined kaolin clay; B. dry grinding the mineral composition under conditions of high intensity to aggregate the particles of the mineral composition, whereby the surface area of the aggregated particles is increased over the surface area of the particles of the unground mineral composition; C. wet milling the aggregated dry ground mineral composition under conditions of high intensity to produce a mineral pigment, whereby the particles of the mineral pigment are increased in surface area and decreased in particle size as compared to the dry ground mineral composition prior to wet milling. A. obtaining a beneficiated, unground mineral composition selected from hydrous or calcined kaolin clay; B. dry grinding the mineral composition under conditions of high intensity to aggregate the particles of the mineral composition, whereby the surface area of the aggregated particles is increased over the surface area of the particles of the unground mineral composition; C. wet milling the aggregated dry ground mineral composition under conditions of high intensity to produce a mineral pigment, whereby the particles of the mineral pigment are increased in surface area and decreased in particle size as compared to the dry ground mineral composition prior to wet milling.
An apparatus for generating glycol, comprising: (a) an aldol reactor; (b) an extractor for extracting an aldol product, unsaturated aldehyde, using an organic solvent that is not mixed with water; (c) a distillation column for removing a raw material from a solution extract that is discharged from the extractor; (d) a hydrogenation reactor for hydrogenating a solution extract that is discharged from the distillation column; and (e) a divided-wall distillation column for isolating glycol from a hydrogenated solution product that is discharged from the hydrogenation reactor, wherein the hydrogenation reactor is a fixed-bed catalytic reactor that is filled with a copper-based catalyst, wherein the aldol product of the extractor (b) is hydroxypivaldehyde, and the glycol of the divided-wall distillation column (e) is neopentyl glycol. (a) an aldol reactor; (b) an extractor for extracting an aldol product, unsaturated aldehyde, using an organic solvent that is not mixed with water; (c) a distillation column for removing a raw material from a solution extract that is discharged from the extractor; (d) a hydrogenation reactor for hydrogenating a solution extract that is discharged from the distillation column; and (e) a divided-wall distillation column for isolating glycol from a hydrogenated solution product that is discharged from the hydrogenation reactor,
Method for polishing the surface of a polyamide object obtained by additive manufacturing or 3D printing techniques, characterized in that it comprises immersing the object in a mixture of formic acid and dichloromethane at room temperature for a period of time comprised between 5 seconds and 6 minutes, wherein the ratio of formic acid:dichloromethane by volume is comprised between 1:10 and 3:1.
A set for motor activities comprising a first stick for walking and a second stick for walking; the first stick for walking and the second stick for walking each comprise one or more sensors for detecting respective physical characteristics, an electronic module comprising a respective electronic unit for detecting and recording data acquired by the sensor ; the electronic units of the first stick and of the second stick are configured for communicating with each other using a wireless data transmission network; each electronic unit is configured to receive an activation command for starting recording of the data acquired and a deactivation command for ending recording; characterised in that at least one electronic unit is configured to receive a timestamp; one of either of the two electronic units of the first stick and of the second stick , called the reference electronic unit , is configured to send to the other electronic unit , called the dependent electronic unit , a timestamp. the first stick for walking and the second stick for walking each comprise one or more sensors for detecting respective physical characteristics, an electronic module comprising a respective electronic unit for detecting and recording data acquired by the sensor ; the electronic units of the first stick and of the second stick are configured for communicating with each other using a wireless data transmission network; each electronic unit is configured to receive an activation command for starting recording of the data acquired and a deactivation command for ending recording; characterised in that at least one electronic unit is configured to receive a timestamp; one of either of the two electronic units of the first stick and of the second stick , called the reference electronic unit , is configured to send to the other electronic unit , called the dependent electronic unit , a timestamp.
A synthetic grindstone for performing surface processing, the synthetic grindstone comprising: abrasive grains ; binder made of a thermosetting resin material and holding the abrasive grains in a dispersed state; and filler including first filler having a larger average particle diameter than the abrasive grains , and second filler having electrical conductivity, and third filler harder than a workpiece, the filler being disposed in a state of being dispersed in the binder ; wherein: an abrasive grain rate (Vg) of the abrasive grains is more than 0 vol% and 20 vol% or less, a binder rate (Vb) of the binder is 5 vol% or more and 30 vol% or less, the first filler is 0 vol% or more and 40 vol% or less, the second filler is 0 vol% or more and 10 vol% or less, the third filler is 0 vol% or more and 20 vol% or less, and a porosity (Vp) is set according to values of the abrasive grain rate (Vg), the binder rate (Vb), and the filler such that a total sums up to 100 vol%. abrasive grains ; binder made of a thermosetting resin material and holding the abrasive grains in a dispersed state; and filler including first filler having a larger average particle diameter than the abrasive grains , and second filler having electrical conductivity, and third filler harder than a workpiece, the filler being disposed in a state of being dispersed in the binder ; first filler having a larger average particle diameter than the abrasive grains , and second filler having electrical conductivity, and third filler harder than a workpiece, the filler being disposed in a state of being dispersed in the binder ; wherein: an abrasive grain rate (Vg) of the abrasive grains is more than 0 vol% and 20 vol% or less, a binder rate (Vb) of the binder is 5 vol% or more and 30 vol% or less, the first filler is 0 vol% or more and 40 vol% or less, the second filler is 0 vol% or more and 10 vol% or less, the third filler is 0 vol% or more and 20 vol% or less, and a porosity (Vp) is set according to values of the abrasive grain rate (Vg), the binder rate (Vb), and the filler such that a total sums up to 100 vol%. an abrasive grain rate (Vg) of the abrasive grains is more than 0 vol% and 20 vol% or less, a binder rate (Vb) of the binder is 5 vol% or more and 30 vol% or less, the first filler is 0 vol% or more and 40 vol% or less, the second filler is 0 vol% or more and 10 vol% or less, the third filler is 0 vol% or more and 20 vol% or less, and a porosity (Vp) is set according to values of the abrasive grain rate (Vg), the binder rate (Vb), and the filler such that a total sums up to 100 vol%.
An apparatus for measuring an impedance of a laminated battery , comprising: a laminated battery in which a plurality of power generating elements is laminated; a load connected to both ends of the laminated battery ; a superimposing unit configured to superimpose a pulsating current or a pulsating voltage on an output of the laminated battery ; an impedance measuring unit configured to measure, when the pulsating current is superimposed on the output, the internal impedance of the laminated battery on the basis of the pulsating current and a pulsating voltage generated by superimposing the pulsating current, the impedance measuring unit being configured to measure, when the pulsating voltage is superimposed on the output, the internal impedance of the laminated battery on the basis of the pulsating voltage and a pulsating current generated by superimposing the pulsating voltage; a resistance component provided between the superimposing unit and the load ; and a potential difference suppressing circuit configured to suppress a pulsating potential difference between both ends of the resistance component . a laminated battery in which a plurality of power generating elements is laminated; a load connected to both ends of the laminated battery ; a superimposing unit configured to superimpose a pulsating current or a pulsating voltage on an output of the laminated battery ; an impedance measuring unit configured to measure, when the pulsating current is superimposed on the output, the internal impedance of the laminated battery on the basis of the pulsating current and a pulsating voltage generated by superimposing the pulsating current, the impedance measuring unit being configured to measure, when the pulsating voltage is superimposed on the output, the internal impedance of the laminated battery on the basis of the pulsating voltage and a pulsating current generated by superimposing the pulsating voltage; a resistance component provided between the superimposing unit and the load ; and a potential difference suppressing circuit configured to suppress a pulsating potential difference between both ends of the resistance component .
Mobile additive manufacturing installation , the installation comprising a main self-supporting frame which makes it possible to render the installation transportable by road, the installation comprising a main manufacturing housing supported by the main frame and closed in leaktight fashion by panels fixed to the main frame, at least one main additive manufacturing machine (M1) being installed inside the main manufacturing housing, the main additive manufacturing machine (M1) comprising at least one manufacturing chamber (CF1) inside which is carried out an additive manufacturing process consisting in depositing additive manufacturing powder and in fusing the grains of this powder using a source of energy or of heat, the installation comprising a main inerting device which makes it possible to supply the manufacturing chamber (CF1) of the machine (M1) with an inert gas and which also makes it possible to capture the inert gas contaminated by the fumes resulting from the additive manufacturing inside the manufacturing chamber (CF1), a main circulation path being provided in the main manufacturing housing in order to make it possible for an operator to circulate around the main additive manufacturing machine (M1), the installation comprising a main airlock for the entry and the exit of at least one operator, and this main airlock being supported by the main frame and closed in leaktight fashion by panels fixed to the main self-supporting frame , an internal door makes it possible for an operator to circulate between the main airlock and the main manufacturing housing and an external door makes it possible for an operator to circulate between the main airlock and the outside of the installation , the installation comprising a main device for treatment of the air circulating inside the main manufacturing housing , this main treatment device making it possible to supply the inside of the main manufacturing housing with air withdrawn outside the installation, this main treatment device making it possible to withdraw the air present in the main manufacturing housing and in the main airlock , and this main treatment device making it possible to manage the pressure of the air present in the main manufacturing housing and in the main airlock .
A joystick for controlling a machine in multi-axes, comprising: a control portion having a body in which at least one circuit board having at least one sensor is provided; a top portion having a flexible boot forming at least partly an outer periphery of the top portion provided on the control portion ; and a control arm mounted on a pivotal member for pivotal movement relative to the body ; wherein said control arm is made of plastic in an injection-molding operation and has an overmolded magnetic member suitable to interact with the sensor , said magnetic member provided in the proximity of the circuit board and characterized in that the joystick further comprises a sealing plate which is shaped and dimensioned to match with the circuit board and is provided on said sealing plate to provide sealing the circuit board wherein said sealing plate further comprises at least one hole which is aligned with respect to a hole in the circuit board and a hole in the body for fastening. a control portion having a body in which at least one circuit board having at least one sensor is provided; a top portion having a flexible boot forming at least partly an outer periphery of the top portion provided on the control portion ; and a control arm mounted on a pivotal member for pivotal movement relative to the body ; wherein said control arm is made of plastic in an injection-molding operation and has an overmolded magnetic member suitable to interact with the sensor , said magnetic member provided in the proximity of the circuit board and characterized in that the joystick further comprises a sealing plate which is shaped and dimensioned to match with the circuit board and is provided on said sealing plate to provide sealing the circuit board wherein said sealing plate further comprises at least one hole which is aligned with respect to a hole in the circuit board and a hole in the body for fastening.
A rotor blade for a wind turbine, the rotor blade comprising two or more wing members extending along each other, at a distance from each other, and along a longitudinal direction of the rotor blade , wherein each wing member has an airfoil shaped cross-section as seen in a plane transverse to the longitudinal extension of the wing member, wherein each wing member is divided into at least a first sub-member and a second sub-member , the sub-members (110a-b) being arranged one after another along the longitudinal direction, wherein each sub-member comprises a longitudinally extending first part of a wing profile and a longitudinally extending second part of the wing profile, the parts of the wing profile being connected to each other thereby forming a shell structure, and at least one inner support member, preferably at least two inner support members (134a-b), extending inside the shell structure from an inside of the first part of the wing profile to an inside of the second part of the wing profile, wherein each sub-member (110a-b) is arranged in the rotor blade with an inner end angular orientation about the longitudinal direction at an inner end and an outer end angular orientation about the longitudinal direction at an outer end thereby forming a discrete portion of the longitudinal extension of respective wing member, wherein, in each wing member , at an interface between the first and the second sub-member (110a-b), the first sub-member is arranged in the rotor blade with said outer end angular orientation about the longitudinal direction and the second sub-member is arranged in the rotor blade with said inner end angular orientation about the longitudinal direction, the inner end angular orientation of the second sub-member being different from the outer end angular orientation of the first sub-member .
A circuit disposed on a first circuit die, the circuit comprising: a real time clock, RTC, circuit to: receive a shared clock signal from a clock circuit ; receive clock information associated with the shared clock signal; generate a RTC signal based on the shared clock signal; and modulate a pulse width of the RTC signal to encode the clock information; and an output terminal coupled to the RTC circuit to pass the modulated RTC signal to one or more other circuit dies of the plurality of circuit dies ; and one or more output terminals to share the shared clock signal by passing the shared clock signal to one or more other circuit dies of the plurality of circuit dies . a real time clock, RTC, circuit to: receive a shared clock signal from a clock circuit ; receive clock information associated with the shared clock signal; generate a RTC signal based on the shared clock signal; and modulate a pulse width of the RTC signal to encode the clock information; and receive a shared clock signal from a clock circuit ; receive clock information associated with the shared clock signal; generate a RTC signal based on the shared clock signal; and modulate a pulse width of the RTC signal to encode the clock information; and an output terminal coupled to the RTC circuit to pass the modulated RTC signal to one or more other circuit dies of the plurality of circuit dies ; and one or more output terminals to share the shared clock signal by passing the shared clock signal to one or more other circuit dies of the plurality of circuit dies .