mhurhangee/patent-ind-claim-en huggingface dataset:
A method of predicting a non-diabetic subject's degree of insulin resistance, comprising: measuring a plurality of selected lipoprotein parameters from an in vitro patient biosample, wherein the biosample is a non-fasting blood plasma or serum sample, wherein the plurality of selected lipoprotein parameters includes particle concentration and size; programmatically providing a risk score for each of the selected lipoprotein parameters based on the measurement of the selected lipoprotein parameters, wherein the risk score is selected from a set of defined risk scores associated with different potential measurement values or ranges of values of each of the selected lipoprotein parameters; and programmatically generating a lipoprotein insulin resistance index by summing the risk scores of the selected lipoprotein parameters, wherein the selected lipoprotein parameters include the following: small LDL , and large HDL particle concentrations and LDL , and HDL particle sizes. measuring a plurality of selected lipoprotein parameters from an in vitro patient biosample, wherein the biosample is a non-fasting blood plasma or serum sample, wherein the plurality of selected lipoprotein parameters includes particle concentration and size; programmatically providing a risk score for each of the selected lipoprotein parameters based on the measurement of the selected lipoprotein parameters, wherein the risk score is selected from a set of defined risk scores associated with different potential measurement values or ranges of values of each of the selected lipoprotein parameters; and programmatically generating a lipoprotein insulin resistance index by summing the risk scores of the selected lipoprotein parameters, wherein the selected lipoprotein parameters include the following: small LDL , and large HDL particle concentrations and LDL , and HDL particle sizes.
A partial discharge (PD) detection apparatus based on a cross interconnection box , wherein the cross interconnection box comprises a first A terminal and a second A terminal that are connected to each other, a first B terminal and a second B terminal that are connected to each other, and a first C terminal and a second C terminal that are connected to each other, wherein the first A terminal , the first B terminal , and the first C terminal are connected to three cables respectively, and wherein the second A terminal , the second B terminal , and the second C terminal are grounded, the PD detection apparatus further comprising three capacitor impedance arms that are respectively connected between the first A terminal and the second C terminal , between the first B terminal and the second A terminal , and between the first C terminal and the second B terminal , wherein and the capacitor impedance arms each comprise a capacitor and an impedance plate that are connected in series, and wherein a branch in a connection line between the capacitor and the impedance plate is connected to a pulse signal detection module for detecting a pulse voltage signal, characterized in that the PD detection apparatus further comprises a processor , that each pulse signal detection module is connected to the processor , that each pulse signal detection module is further connected to a first wireless transmission circuit, the processor is provided with a second wireless transmission circuit, and the pulse signal detection module is connected to the second wireless transmission circuit by using the first wireless transmission circuit, and then connected to the processor , that the first A terminal , the first B terminal , and the first C terminal each are connected to a cable by using a clamp, and the clamp is made from an insulating material, that the first wireless transmission circuit and the second wireless transmission circuit have a same structure and are both Bluetooth wireless circuits, wireless-fidelity (Wi-Fi) wireless circuits, or Internet of Things (IoT) wireless circuits, that each pulse signal detection module comprises a microprocessor and an amplifier circuit, wherein the amplifier circuit is connected to the microprocessor and the connection line between the capacitor and the impedance plate , and the microprocessor is further connected to the first wireless transmission circuit, and that the three cables are grounded.
Carrier for carrying an ophthalmic lens, in particular a contact lens such as a soft contact lens, during its treatment in a bath, the carrier comprising: a basket comprising a basket wall defining a concave cavity for accommodating an ophthalmic lens ; and a retainer comprising at least three retainer arms arranged in a star-shaped configuration, characterized in that the basket further comprises at least three recesses arranged in the basket wall at different locations along the circumference of the basket , in that the star-shaped configuration in which the at least three retainer arms are arranged corresponds to the arrangement of the recesses along the circumference of the basket , and in that in an assembled state each retainer arm of the retainer engages with a corresponding one of the recesses in the basket wall of the basket to retain the ophthalmic lens in the cavity. a basket comprising a basket wall defining a concave cavity for accommodating an ophthalmic lens ; and a retainer comprising at least three retainer arms arranged in a star-shaped configuration, characterized in that the basket further comprises at least three recesses arranged in the basket wall at different locations along the circumference of the basket , in that the star-shaped configuration in which the at least three retainer arms are arranged corresponds to the arrangement of the recesses along the circumference of the basket , and in that in an assembled state each retainer arm of the retainer engages with a corresponding one of the recesses in the basket wall of the basket to retain the ophthalmic lens in the cavity.
Attachment device for attachment to a rear attachment space of a towing machine , which comprises an attachment arrangement for attachment to a standard rear linkage of a towing machine and a central transfer gear mechanism which comprises a drive for connection to a drive shaft of the towing machine and at least two outputs , the attachment device also having at least a first and a second hitching arrangement (122-123) for hitching a standard clutch arrangement in each case to an agricultural working machine in field operation, the attachment arrangement being aligned in an extension direction , and the hitching arrangements (122-123) each being arranged laterally to the attachment arrangement , the two hitching arrangements (122-123) each being arranged at a positioning angle (α, 132, 132') with 0°< α < 90° to the attachment arrangement , characterised in that the attachment device is provided for hitching towed agricultural working machines , the hitching arrangements (122-123) each comprising a pair of hitching elements which are designed as catch hooks.
Process for the thermal afterburning of the exhaust gas streams that are formed in the production of acrolein in a gas-phase process, wherein the exhaust gas streams are from the process of gas-phase oxidation of propylene or propane to acrolein, and the thermal afterburning of the exhaust gas streams that are formed in the production of prussic acid in a gas-phase process, wherein the exhaust gas streams are from the Andrussow process or the BMA (prussic acid from methane and ammonia) process, characterized in that the exhaust gas streams from the production of acrolein and the exhaust gas streams from the production of prussic acid are fed to a shared thermal afterburning, wherein the thermal afterburning of the exhaust gas streams from the production of acrolein and from the production of prussic acid proceeds concurrently with respect to time.
A method for estimating the fractured volume in a reservoir domain (Ω) by injecting a high pressure fluid, said domain comprising a borehole (B) with at least one injection point (IP) for generating fractures (F) in the domain (Ω) by injecting a high pressure fluid, the method comprising: a) generating, via a computer system, a geomechanical model of the reservoir domain (Ω) employing information from said reservoir; b) generating, via a computer system, a fluid flow model for the fluid stored in the reservoir and for the injection fluid; c) generating, via a computer system, a first numerical mesh discretizing the geomechanical model , said discretization allowing to represent induced fractures (F) in said domain (Ω); d) generating, via a computer system, a second numerical mesh discretizing the fluid model ; e) populating, via a computer system, the first numerical mesh with mechanical properties and the second numerical mesh with fluid properties ; f) estimating the initial stress in the geomechanical model and defining the initial conditions for the geomechanical model with said stresses, and the initial conditions for the fluid flow model , via a computer system; g) simulating , via a computer system, for a predetermined period of time the geomechanical model and the fluid model , both models being coupled wherein the boundary conditions take into account the injection of high pressure fluid conditions by means of the at least one injection point (IP); h) determining, via a computer system, the numerical mesh regions where the stimulated fracture exist; i) computing, via a computer system, the fractured volume measuring the volume of said numerical mesh regions where the stimulated fracture exist. a) generating, via a computer system, a geomechanical model of the reservoir domain (Ω) employing information from said reservoir; b) generating, via a computer system, a fluid flow model for the fluid stored in the reservoir and for the injection fluid; c) generating, via a computer system, a first numerical mesh discretizing the geomechanical model , said discretization allowing to represent induced fractures (F) in said domain (Ω); d) generating, via a computer system, a second numerical mesh discretizing the fluid model ; e) populating, via a computer system, the first numerical mesh with mechanical properties and the second numerical mesh with fluid properties ; f) estimating the initial stress in the geomechanical model and defining the initial conditions for the geomechanical model with said stresses, and the initial conditions for the fluid flow model , via a computer system; g) simulating , via a computer system, for a predetermined period of time the geomechanical model and the fluid model , both models being coupled wherein the boundary conditions take into account the injection of high pressure fluid conditions by means of the at least one injection point (IP); h) determining, via a computer system, the numerical mesh regions where the stimulated fracture exist; i) computing, via a computer system, the fractured volume measuring the volume of said numerical mesh regions where the stimulated fracture exist.
A bicycle simulator comprising: a base portion ; a frame support portion connected to the base portion to be movable in one direction and for detachably coupling to a frame of a mounted bicycle connecting a front wheel and a rear wheel of the bicycle ; a first sensor configured to sense a moving distance and a moving direction of the frame support portion in the one direction; a communication circuit configured to receive the moving distance and the moving direction of the frame support portion sensed by the first sensor ; a processor configured to generate a bicycle avatar of which a travelling direction changes according to the moving distance and the moving direction of the frame support portion transmitted from the communication circuit; a display configured to display a travelling state of the bicycle avatar; a slide guide arranged to be fixed between both sides of the base portion and extending in one direction; a slide portion fixed to one end of the frame support portion and connected to be movable on the slide guide in the one direction a front wheel roller for supporting the front wheel of the bicycle and rotating together with rotation of the front wheel ; a rear wheel roller for supporting the rear wheel of the bicycle and rotating together with rotation of the rear wheel ; and a second sensor configured to sense a rotation speed and a rotation distance of at least one of the front wheel roller and the rear wheel roller ; wherein the first sensor is configured to sense a moving direction and a moving distance of the slide portion moving on the slide guide. a base portion ; a frame support portion connected to the base portion to be movable in one direction and for detachably coupling to a frame of a mounted bicycle connecting a front wheel and a rear wheel of the bicycle ; a first sensor configured to sense a moving distance and a moving direction of the frame support portion in the one direction; a communication circuit configured to receive the moving distance and the moving direction of the frame support portion sensed by the first sensor ; a processor configured to generate a bicycle avatar of which a travelling direction changes according to the moving distance and the moving direction of the frame support portion transmitted from the communication circuit; a display configured to display a travelling state of the bicycle avatar; a slide guide arranged to be fixed between both sides of the base portion and extending in one direction; a slide portion fixed to one end of the frame support portion and connected to be movable on the slide guide in the one direction a front wheel roller for supporting the front wheel of the bicycle and rotating together with rotation of the front wheel ; a rear wheel roller for supporting the rear wheel of the bicycle and rotating together with rotation of the rear wheel ; and a second sensor configured to sense a rotation speed and a rotation distance of at least one of the front wheel roller and the rear wheel roller ; wherein the first sensor is configured to sense a moving direction and a moving distance of the slide portion moving on the slide guide.
A method, comprising: generating , by a network device in a 3GPP NR system, indication information, wherein the indication information is configured to indicate resources of one of at least two uplink carriers that is used by a terminal device in a 3GPP NR system to perform non-contention random access, wherein the at least two uplink carriers at least comprise an uplink carrier and a supplementary uplink carrier and have different frequencies; and sending , by the network device , the indication information to the terminal device, characterized in that the sending of the indication information to the terminal device comprises: sending, by the network device , a physical downlink control channel, PDCCH, order to the terminal device , where in the PDCCH order comprises the indication information. generating , by a network device in a 3GPP NR system, indication information, wherein the indication information is configured to indicate resources of one of at least two uplink carriers that is used by a terminal device in a 3GPP NR system to perform non-contention random access, wherein the at least two uplink carriers at least comprise an uplink carrier and a supplementary uplink carrier and have different frequencies; and sending , by the network device , the indication information to the terminal device, characterized in that the sending of the indication information to the terminal device comprises: sending, by the network device , a physical downlink control channel, PDCCH, order to the terminal device , where in the PDCCH order comprises the indication information.
Reflection microwave barrier for monitoring a limit level in at least one working area by outputting a switching signal, comprising a microwave transmitter for continuously transmitting a time-modulated microwave signal , a microwave receiver arranged on the same side of the at least one working area along the propagation direction of the microwave signal as the microwave transmitter , and for receiving a reflection of the microwave signal , a control unit communicating with the microwave receiver for detecting and monitoring echo signals (11a-11c) in the received reflection of the microwave signal , wherein the control unit is configured to calculate the time of flight of an echo signal when the amplitude of the echo signal of the reflection arises or increases, to determine by means of the calculated time of flight whether the origin of the echo signal lies within the at least one working area , and, only in case that the origin of the echo signal of the reflection lies within the at least one working area, to output the switching signal characterized in that the control unit is configured to, in case that the origin of the echo signal along the propagation direction of the microwave signal does not lie within the at least one working area, to ignore the echo signal of the reflection of a foreign body during a fill level detection. a microwave transmitter for continuously transmitting a time-modulated microwave signal , a microwave receiver arranged on the same side of the at least one working area along the propagation direction of the microwave signal as the microwave transmitter , and for receiving a reflection of the microwave signal , a control unit communicating with the microwave receiver for detecting and monitoring echo signals (11a-11c) in the received reflection of the microwave signal , wherein the control unit is configured to calculate the time of flight of an echo signal when the amplitude of the echo signal of the reflection arises or increases, to determine by means of the calculated time of flight whether the origin of the echo signal lies within the at least one working area , and, only in case that the origin of the echo signal of the reflection lies within the at least one working area, to output the switching signal characterized in that the control unit is configured to, in case that the origin of the echo signal along the propagation direction of the microwave signal does not lie within the at least one working area, to ignore the echo signal of the reflection of a foreign body during a fill level detection.
A carrier-nanoparticle complex comprising: a carbon carrier having a polymer layer provided on a surface thereof; and metal nanoparticles provided on the polymer layer of the carbon carrier, wherein the polymer layer comprises a polyalkyleneimine, and a content of a nitrogen element (N) of the polymer layer is 0.5 wt% or more based on a total mass of the carbon carrier having the polymer layer. a carbon carrier having a polymer layer provided on a surface thereof; and metal nanoparticles provided on the polymer layer of the carbon carrier, wherein the polymer layer comprises a polyalkyleneimine, and a content of a nitrogen element (N) of the polymer layer is 0.5 wt% or more based on a total mass of the carbon carrier having the polymer layer.
An optical glass comprising: a P 2 O 5 component of 30 to 60 mass% (exclusive of 30); an Al 2 O 3 component of 2 to 10 mass% (exclusive of 2); a TiO 2 component of 10 to 36 mass% (exclusive of 36); an Nb 2 O 5 component of 0 to 5 mass%; a Ta 2 O 5 component of 0 to 15 mass%; a Bi 2 O 3 component of 0 to 5 mass% (exclusive of 5); an Sb 2 O 3 component of 0 to 1 mass%; an Na 2 O component of 10 to 20% mass%; a ZnO component of 1 to 8 mass%; and an Li 2 O component of 0 mass%. a P 2 O 5 component of 30 to 60 mass% (exclusive of 30); an Al 2 O 3 component of 2 to 10 mass% (exclusive of 2); a TiO 2 component of 10 to 36 mass% (exclusive of 36); an Nb 2 O 5 component of 0 to 5 mass%; a Ta 2 O 5 component of 0 to 15 mass%; a Bi 2 O 3 component of 0 to 5 mass% (exclusive of 5); an Sb 2 O 3 component of 0 to 1 mass%; an Na 2 O component of 10 to 20% mass%; a ZnO component of 1 to 8 mass%; and an Li 2 O component of 0 mass%.
A compound represented by the formula : P-[X-R-Y-R'-Q] 2 wherein P is selected from the group consisting of: -(CH 2 ) 2 -O-(CH2) 2 -, -(CH 2 ) 2 -O-(CH 2 ) 2 -O-(CH 2 ) 2 -, -(CH 2 ) 2 -O-O-(CH 2 ) 2 -, -(CH 2 ) 3 -O-(CH 2 ) 2 -O-(CH 2 ) 3 -, and -(CH 2 ) 2 -O-CH 2 -O-(CH 2 ) 2 -, each X is independently selected from a group consisting of methylimino, 1,2-pyrrolidinediyl and 1,3-pyrrolidinediyl, each R is independently a C 1 to C 6 alkylene, each Y is independently a divalent linking group selected from the group consisting of single bond, ether bond, carboxylic ester bond, thiocarboxylic ester bond, thioester bond, amide bond, carbamate bond, and urea bond, each R' is independently a single bond or a C 1 to C 6 alkylene, and each Q is independently a liposoluble vitamin residue; provided that the structure contains at least one biodegradable group selected from the group consisting of carboxylic ester bond, thiocarboxylic ester bond, dithiocarboxylic bond, amide bond, carbamate bond, carboxydioxy bond, and urea bond. P is selected from the group consisting of: -(CH 2 ) 2 -O-(CH2) 2 -, -(CH 2 ) 2 -O-(CH 2 ) 2 -O-(CH 2 ) 2 -, -(CH 2 ) 2 -O-O-(CH 2 ) 2 -, -(CH 2 ) 3 -O-(CH 2 ) 2 -O-(CH 2 ) 3 -, and -(CH 2 ) 2 -O-CH 2 -O-(CH 2 ) 2 -, -(CH 2 ) 2 -O-(CH2) 2 -, -(CH 2 ) 2 -O-(CH 2 ) 2 -O-(CH 2 ) 2 -, -(CH 2 ) 2 -O-O-(CH 2 ) 2 -, -(CH 2 ) 3 -O-(CH 2 ) 2 -O-(CH 2 ) 3 -, and -(CH 2 ) 2 -O-CH 2 -O-(CH 2 ) 2 -, each X is independently selected from a group consisting of methylimino, 1,2-pyrrolidinediyl and 1,3-pyrrolidinediyl, each R is independently a C 1 to C 6 alkylene, each Y is independently a divalent linking group selected from the group consisting of single bond, ether bond, carboxylic ester bond, thiocarboxylic ester bond, thioester bond, amide bond, carbamate bond, and urea bond, each R' is independently a single bond or a C 1 to C 6 alkylene, and each Q is independently a liposoluble vitamin residue; provided that the structure contains at least one biodegradable group selected from the group consisting of carboxylic ester bond, thiocarboxylic ester bond, dithiocarboxylic bond, amide bond, carbamate bond, carboxydioxy bond, and urea bond.
A structural support system, such as, but not limited to, a scaffolding or a falsework comprising verticals , horizontals and/or diagonals connected at node sections at the verticals , where each node section comprises a locking device for joining horizontals and/or diagonals with bladed ends arranged at ends of the horizontals and/or diagonals and the vertical , where the locking device is a cup pair comprising a bottom cup held at a position on the verticals and a top cup moveably arranged on the verticals , where bladed ends of the horizontals and/or diagonals are configured to be locked by bottom cup part and top cup part, providing a rigid connection, the bottom cup comprises at least one hole , preferably at the circumference of a lower part of the bottom cup , the bottom cups to be held at a position on the verticals are held by using at least one fastening means and corresponding hole(s) in the bottom cups and the verticals , the fastening means being a headed bolt rigidly fixed by screwing the headed bolt into the vertical , characterized in that the diameter of the hole of said bottom cup being larger than the diameter of the head of the headed bolt, such that the hole of the bottom cup rests on the head of the headed bolt, providing a compressive load capacity in vertical and/or horizontal direction of the bottom cup via the bolt. the bottom cup comprises at least one hole , preferably at the circumference of a lower part of the bottom cup , the bottom cups to be held at a position on the verticals are held by using at least one fastening means and corresponding hole(s) in the bottom cups and the verticals , the fastening means being a headed bolt rigidly fixed by screwing the headed bolt into the vertical , characterized in that the diameter of the hole of said bottom cup being larger than the diameter of the head of the headed bolt, such that the hole of the bottom cup rests on the head of the headed bolt, providing a compressive load capacity in vertical and/or horizontal direction of the bottom cup via the bolt.