mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical hub for controlling a display , the surgical hub comprising: a processor, the processor being configured to: determine a user , a medical instrument , and a location within an operating room; determine contextual data associated with the medical instrument based on the user, the medical instrument, and the location within the operating room by: determining that the medical instrument is at the location; determining that the user is beyond a threshold distance away from the location; determining that the location indicates that the medical instrument is to be powered off; and setting a display instruction to indicate that the medical instrument should be powered off; and send the display instruction to the display that instructs the display to be configured in accordance with the contextual data associated with the medical instrument. determine a user , a medical instrument , and a location within an operating room; determine contextual data associated with the medical instrument based on the user, the medical instrument, and the location within the operating room by: determining that the medical instrument is at the location; determining that the user is beyond a threshold distance away from the location; determining that the location indicates that the medical instrument is to be powered off; and setting a display instruction to indicate that the medical instrument should be powered off; and determining that the medical instrument is at the location; determining that the user is beyond a threshold distance away from the location; determining that the location indicates that the medical instrument is to be powered off; and setting a display instruction to indicate that the medical instrument should be powered off; and send the display instruction to the display that instructs the display to be configured in accordance with the contextual data associated with the medical instrument.
A motor, comprising: a housing including an upper housing and a bottom housing ; a stator mounted on the housing and including a stator core having a plurality of teeth, an insulator and a coil ; a rotor rotatably installed at a center of the stator by a rotation shaft ; a vibration prevention unit installed between the stator and the housing ; and an insulation member wrapping an entire surface of the stator core except for a surface opposite to the rotor of the stator , characterized in that the vibration prevention unit includes a pair of first pressure ribs extensively formed at the insulator for surface-contacting an inner surface of the upper housing and a second pressure rib formed at a floor surface facing the insulator of the bottom housing to apply a pressure to the insulator . a housing including an upper housing and a bottom housing ; a stator mounted on the housing and including a stator core having a plurality of teeth, an insulator and a coil ; a rotor rotatably installed at a center of the stator by a rotation shaft ; a vibration prevention unit installed between the stator and the housing ; and an insulation member wrapping an entire surface of the stator core except for a surface opposite to the rotor of the stator , characterized in that the vibration prevention unit includes a pair of first pressure ribs extensively formed at the insulator for surface-contacting an inner surface of the upper housing and a second pressure rib formed at a floor surface facing the insulator of the bottom housing to apply a pressure to the insulator .
A catheter assembly , comprising: a catheter adapter , comprising a proximal end, a distal end, and a lumen extending therebetween, wherein the distal end comprises a catheter configured to be inserted into vasculature of a patient; a septum disposed within the lumen; and a needle assembly coupled to the catheter adapter , characterised in that , a distal end of the needle assembly comprises a plurality of arms and a retention disc coupled to the plurality of arms , wherein the retention disc is secured within the lumen proximal to the septum , wherein each of the plurality of arms includes a line of weakness , wherein in response to twisting a proximal end of the needle assembly with respect to the catheter adapter , each of the plurality of arms is configured to break at the line of weakness , the retention disc remains secured within the catheter adapter , and the proximal end of the needle assembly is uncoupled from the catheter adapter . a catheter adapter , comprising a proximal end, a distal end, and a lumen extending therebetween, wherein the distal end comprises a catheter configured to be inserted into vasculature of a patient; a septum disposed within the lumen; and a needle assembly coupled to the catheter adapter , characterised in that , a distal end of the needle assembly comprises a plurality of arms and a retention disc coupled to the plurality of arms , wherein the retention disc is secured within the lumen proximal to the septum , wherein each of the plurality of arms includes a line of weakness , wherein in response to twisting a proximal end of the needle assembly with respect to the catheter adapter , each of the plurality of arms is configured to break at the line of weakness , the retention disc remains secured within the catheter adapter , and the proximal end of the needle assembly is uncoupled from the catheter adapter .
Method for manufacturing a twisted carbon fiber (TCF) porous aerogel, the method comprising: (i) providing cotton comprising fibers having a twisted structure; and (ii) heating the cotton under inert gas atmosphere and at a reduced pressure of about 0.1 mbar to about 500 mbar to any temperature of up to 900 °C wherein "about" means the value it relates to ±10%. (i) providing cotton comprising fibers having a twisted structure; and (ii) heating the cotton under inert gas atmosphere and at a reduced pressure of about 0.1 mbar to about 500 mbar to any temperature of up to 900 °C wherein "about" means the value it relates to ±10%.
A multi-use disposable set (MUDS) comprising: at least one syringe having a proximal end and a distal end spaced apart from the proximal end along a longitudinal axis, and a plunger reciprocally movable within a syringe interior between the proximal end and the distal end ; a manifold in fluid communication with the distal end of the at least one syringe ; at least one valve at a distal end of the at least one syringe and in fluid communication with the syringe interior , wherein the at least one valve is operable between a filling position for filling the syringe interior with fluid and a delivery position for delivering the fluid from the syringe interior ; at least one connection port in fluid communication with the manifold and the syringe interior when the at least one valve is in the delivery position, characterized in that said at least one valve is adapted for connection to a coupling mechanism of a fluid injector , said coupling mechanism having a rotatable coupling having a blade for coupling between the coupling mechanism and said at least one valve , wherein the at least one valve comprises a valve head with a slot recessed into the valve head , wherein the slot has a lip on one end of the slot which limits an orientation of the blade of the coupling mechanism of the fluid injector system to a single self-aligned orientation. at least one syringe having a proximal end and a distal end spaced apart from the proximal end along a longitudinal axis, and a plunger reciprocally movable within a syringe interior between the proximal end and the distal end ; a manifold in fluid communication with the distal end of the at least one syringe ; at least one valve at a distal end of the at least one syringe and in fluid communication with the syringe interior , wherein the at least one valve is operable between a filling position for filling the syringe interior with fluid and a delivery position for delivering the fluid from the syringe interior ; at least one connection port in fluid communication with the manifold and the syringe interior when the at least one valve is in the delivery position, characterized in that said at least one valve is adapted for connection to a coupling mechanism of a fluid injector , said coupling mechanism having a rotatable coupling having a blade for coupling between the coupling mechanism and said at least one valve , wherein the at least one valve comprises a valve head with a slot recessed into the valve head , wherein the slot has a lip on one end of the slot which limits an orientation of the blade of the coupling mechanism of the fluid injector system to a single self-aligned orientation.
A process for producing long chain dibasic acid of formula (V) and long chain amino acid of formula (VI), comprising: reacting a keto fatty acid (II) of the formula: in the presence or absence of a solvent with an aqueous solution of hydroxylamine salt or subjecting a keto fatty acid (II) to an ammoximation reaction to produce an oxime fatty acid (III) of the formula: wherein m is an integer from 0 to 10; n is an integer from 6 to 20; subjecting the oxime fatty acid (III) to Beckmann rearrangement to yield a mixture of amide fatty acid (IVa) and (IVb) hydrolyzing the mixed amide fatty acids with an acid or a basic agent to a mixture of a long chain dibasic acid (V), a long chain amino acid (VI), a short chain alkylamine (VIII), and an alkanoic acid (VIII) and separating the long chain amino acid (VI), long chain dibasic acid (V), and alkanoic acid (VIII) by a step-wise neutralization or acidification. reacting a keto fatty acid (II) of the formula: in the presence or absence of a solvent with an aqueous solution of hydroxylamine salt or subjecting a keto fatty acid (II) to an ammoximation reaction to produce an oxime fatty acid (III) of the formula: wherein m is an integer from 0 to 10; n is an integer from 6 to 20; subjecting the oxime fatty acid (III) to Beckmann rearrangement to yield a mixture of amide fatty acid (IVa) and (IVb) hydrolyzing the mixed amide fatty acids with an acid or a basic agent to a mixture of a long chain dibasic acid (V), a long chain amino acid (VI), a short chain alkylamine (VIII), and an alkanoic acid (VIII) and separating the long chain amino acid (VI), long chain dibasic acid (V), and alkanoic acid (VIII) by a step-wise neutralization or acidification.
A clamper which clamps a subject clamping member , the clamper comprising: a clamp mechanism which clamps the subject clamping member ; and a contact portion which, when the clamper is used, contacts the subject clamping member at a position different from a clamping position of the clamp mechanism in the clamping state of the clamp mechanism , wherein the clamp mechanism includes a clamp body which has an insertion portion to be inserted into the subject clamping member wherein the insertion portion is provided with a slit , a cotter which has a first tapered surface , and is inserted into the slit , and protrudes from the insertion portion , and comes into friction-contact with the subject clamping member , a piston rod which is inserted into the clamp body , and has a front end portion having a second tapered surface , and is disposed so as to contact the cotter on an upper portion of the slit while the second tapered surface faces a rear end portion of the claim body , wherein the second tapered surface presses an inner peripheral surface of the cotter so as to protrude from the insertion portion when the piston rod is pulled toward the rear end portion of the clamp body , a rod cylinder which is integrated with the clamp body and drives the piston rod , and an elastic body which is inserted into the clamp body and is supported by the clamp body so as to be biased to a rear end portion of the cotter wherein by the biasing force of the elastic body , the cotter presses the first tapered surface against a wall surface near a front end portion of the slit . a clamp mechanism which clamps the subject clamping member ; and a contact portion which, when the clamper is used, contacts the subject clamping member at a position different from a clamping position of the clamp mechanism in the clamping state of the clamp mechanism , wherein the clamp mechanism includes a clamp body which has an insertion portion to be inserted into the subject clamping member wherein the insertion portion is provided with a slit , a cotter which has a first tapered surface , and is inserted into the slit , and protrudes from the insertion portion , and comes into friction-contact with the subject clamping member , a piston rod which is inserted into the clamp body , and has a front end portion having a second tapered surface , and is disposed so as to contact the cotter on an upper portion of the slit while the second tapered surface faces a rear end portion of the claim body , wherein the second tapered surface presses an inner peripheral surface of the cotter so as to protrude from the insertion portion when the piston rod is pulled toward the rear end portion of the clamp body , a rod cylinder which is integrated with the clamp body and drives the piston rod , and an elastic body which is inserted into the clamp body and is supported by the clamp body so as to be biased to a rear end portion of the cotter wherein by the biasing force of the elastic body , the cotter presses the first tapered surface against a wall surface near a front end portion of the slit .
A combination infant positive airway pressure and resuscitation system , comprising: an integrated inspiratory pressure device comprising a resuscitator and a humidifier , wherein the resuscitator is capable of regulating a flow of breathing gas to a desired peak inspiration pressure in an inspiratory circuit, and wherein the humidifier humidifies the flow of breathing gas in the inspiratory circuit; an expiratory pressure device configured to receive expiratory gases from an expiratory circuit and regulate the expiratory gases to a positive end expiration pressure; and an occlusion device within the expiratory circuit upstream from the expiratory pressure device , wherein the occlusion device is configured to selectively block the flow of expiratory gases in the expiratory circuit at desired times such that the pressure within the inspiratory circuit rises to the peak inspiration pressure of the resuscitator. an integrated inspiratory pressure device comprising a resuscitator and a humidifier , wherein the resuscitator is capable of regulating a flow of breathing gas to a desired peak inspiration pressure in an inspiratory circuit, and wherein the humidifier humidifies the flow of breathing gas in the inspiratory circuit; an expiratory pressure device configured to receive expiratory gases from an expiratory circuit and regulate the expiratory gases to a positive end expiration pressure; and an occlusion device within the expiratory circuit upstream from the expiratory pressure device , wherein the occlusion device is configured to selectively block the flow of expiratory gases in the expiratory circuit at desired times such that the pressure within the inspiratory circuit rises to the peak inspiration pressure of the resuscitator.
Method for influencing a kinematic behaviour of a vehicle, in particular a rail vehicle having at least one friction brake system, wherein a braking effect is generated by pressing at least a first friction element and a second friction element against each other, characterised in that at least temperatures (T s ) at least of the first friction element are calculated at least from information relating to a speed, a brake pressure (p) and an external temperature (T U ) of the vehicle and to absolute times (t), in that a heat conduction through the at least first friction element and a speed-dependent cooling of the at least first friction element are taken into consideration during this calculation, in that the kinematic behaviour of the vehicle is influenced on the basis of this calculation and in that the kinematic behaviour of the vehicle is influenced in respect of a calculated permitted driving profile of the vehicle.
A resin composition comprising: an ethylene-α-olefin copolymer (A) which contains 91.0 to 99.9 parts by mole of a constituent unit (a) derived from ethylene and 0.1 to 9.0 parts by mole of a constituent unit (b) derived from a C 3-8 α-olefin (wherein the total of (a) and (b) is 100 parts by mole), and which satisfies requirements (i) to (v) below: (i) a weight average molecular weight (Mw) of 400 to 1,500 as measured by GPC, (ii) a molecular weight distribution (Mw/Mn) of 1.2 to 2.5 as measured by GPC, (iii) a penetration index of 13 dmm or less as measured in accordance with JIS K 2207 at 25°C, and (iv) a melting point (Tm) of 50 to 110°C as measured by DSC; and (v) a fraction of a heat of fusion (ΔH -40 ) derived from a peak at 40°C or lower, relative to total heat of fusion (ΔH all ) derived from all peaks, being 1.0% to 5.0% as measured by differential scanning calorimetry (DSC), and at least one resin (B) selected from the group consisting of a thermoplastic resin and a thermosetting resin, wherein a mass ratio of (A) to (B) ((A)/(B)) is 0.1/99.9 to 50/50. an ethylene-α-olefin copolymer (A) which contains 91.0 to 99.9 parts by mole of a constituent unit (a) derived from ethylene and 0.1 to 9.0 parts by mole of a constituent unit (b) derived from a C 3-8 α-olefin (wherein the total of (a) and (b) is 100 parts by mole), and which satisfies requirements (i) to (v) below: (i) a weight average molecular weight (Mw) of 400 to 1,500 as measured by GPC, (ii) a molecular weight distribution (Mw/Mn) of 1.2 to 2.5 as measured by GPC, (iii) a penetration index of 13 dmm or less as measured in accordance with JIS K 2207 at 25°C, and (iv) a melting point (Tm) of 50 to 110°C as measured by DSC; and (v) a fraction of a heat of fusion (ΔH -40 ) derived from a peak at 40°C or lower, relative to total heat of fusion (ΔH all ) derived from all peaks, being 1.0% to 5.0% as measured by differential scanning calorimetry (DSC), and (i) a weight average molecular weight (Mw) of 400 to 1,500 as measured by GPC, (ii) a molecular weight distribution (Mw/Mn) of 1.2 to 2.5 as measured by GPC, (iii) a penetration index of 13 dmm or less as measured in accordance with JIS K 2207 at 25°C, and (iv) a melting point (Tm) of 50 to 110°C as measured by DSC; and (v) a fraction of a heat of fusion (ΔH -40 ) derived from a peak at 40°C or lower, relative to total heat of fusion (ΔH all ) derived from all peaks, being 1.0% to 5.0% as measured by differential scanning calorimetry (DSC), and at least one resin (B) selected from the group consisting of a thermoplastic resin and a thermosetting resin, wherein a mass ratio of (A) to (B) ((A)/(B)) is 0.1/99.9 to 50/50.
A method of making a halogenated partially fluorinated compound, the method comprising: (a) providing a compound having the following structure of formula (I): R f -CF=CXY wherein X and Y are independently selected from F and Cl; wherein R f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom; (b) contacting the compound with at least one of (i) an iodine or bromine containing salt in the presence of an acid, wherein the iodine or bromine containing salt is of the formula Z i M i+ , wherein Z is selected from I and Br, and M is a counter ion with a valency of i in the range of from 1 to 2; and (ii) aqueous solution of HZ wherein Z is selected from I and Br to form the halogenated partially fluorinated compound of the formula (II): R' f -CFH-CXYZ wherein X and Y are independently selected from F and Cl; Z is selected from I and Br; and R' f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom. (a) providing a compound having the following structure of formula (I): R f -CF=CXY wherein X and Y are independently selected from F and Cl; wherein R f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom; (b) contacting the compound with at least one of (i) an iodine or bromine containing salt in the presence of an acid, wherein the iodine or bromine containing salt is of the formula Z i M i+ , wherein Z is selected from I and Br, and M is a counter ion with a valency of i in the range of from 1 to 2; and (ii) aqueous solution of HZ wherein Z is selected from I and Br to form the halogenated partially fluorinated compound of the formula (II): R' f -CFH-CXYZ wherein X and Y are independently selected from F and Cl; Z is selected from I and Br; and R' f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom. (i) an iodine or bromine containing salt in the presence of an acid, wherein the iodine or bromine containing salt is of the formula Z i M i+ , wherein Z is selected from I and Br, and M is a counter ion with a valency of i in the range of from 1 to 2; and (ii) aqueous solution of HZ wherein Z is selected from I and Br to form the halogenated partially fluorinated compound of the formula (II): R' f -CFH-CXYZ wherein X and Y are independently selected from F and Cl; Z is selected from I and Br; and R' f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom.
A package substrate for an integrated circuit, the package substrate comprising: a core layer (602; 1100) comprising a first surface and a second surface; a first via (620; 1102) located in the core layer; a first dielectric layer (604; 1124) coupled to the first surface of the core layer; characterized by a first inductor (622; 710; 800; 900; 1002; 1180) within the first dielectric layer, the first inductor coupled to the first via in the core layer, the first inductor comprising a first set of interconnects configured to operate as a first spiral winding for the first inductor, wherein the first inductor is oriented within the first dielectric layer such that it generates a first magnetic field that laterally traverses the package substrate in a first direction;a second via (630; 1104) located in the core layer; and a second inductor (234; 310; 632; 710; 802; 902; 1012; 1182) within the first dielectric layer, the second inductor coupled to the second via in the core layer, the second inductor comprising a second set of interconnects configured to operate as a second spiral winding for the second inductor, wherein the second inductor is oriented within the first dielectric layer such that it generates a second magnetic field that laterally traverses the package substrate in a second direction, wherein an amount of magnetic coupling between the first and second inductors is based on the first and second directions. a core layer (602; 1100) comprising a first surface and a second surface; a first via (620; 1102) located in the core layer; a first dielectric layer (604; 1124) coupled to the first surface of the core layer; characterized by a first inductor (622; 710; 800; 900; 1002; 1180) within the first dielectric layer, the first inductor coupled to the first via in the core layer, the first inductor comprising a first set of interconnects configured to operate as a first spiral winding for the first inductor, wherein the first inductor is oriented within the first dielectric layer such that it generates a first magnetic field that laterally traverses the package substrate in a first direction;a second via (630; 1104) located in the core layer; and a second inductor (234; 310; 632; 710; 802; 902; 1012; 1182) within the first dielectric layer, the second inductor coupled to the second via in the core layer, the second inductor comprising a second set of interconnects configured to operate as a second spiral winding for the second inductor, wherein the second inductor is oriented within the first dielectric layer such that it generates a second magnetic field that laterally traverses the package substrate in a second direction, wherein an amount of magnetic coupling between the first and second inductors is based on the first and second directions.