mhurhangee/patent-ind-claim-en huggingface dataset:
A negative electrode for a rechargeable lithium battery , comprising a current collector; and a negative active material layer disposed on the current collector and comprising a carbon-based negative active material and a conductive agent, wherein the carbon-based negative active material comprises artificial graphite, wherein the conductive agent comprises at least one of a fiber-shaped conductive agent having a length of 1 μm to 200 μm and a particle-shaped conductive agent having a size (long diameter) of 1 μm to 20 μm, and a DD (Degree of Divergence) value defined by Equation 1 of the negative electrode is 24 to 70: DD Degree of Divergence = I a /I total * 100 wherein, in Equation 1, I a is a sum of peak integral areas of the peaks at 2θ = 42.4±0.2 °, 43.4±0.2 °, 44.6±0.2 °, and 77.5±0.2 ° measured by XRD using a CuKα ray, and I total is a sum of peak integral areas of the peaks at 2θ=26.5±0.2 °, 42.4±0.2 °, 43.4±0.2 °, 44.6±0.2 °, 54.7±0.2 °, and 77.5±0.2 ° measured by XRD using a CuKα ray. a current collector; and a negative active material layer disposed on the current collector and comprising a carbon-based negative active material and a conductive agent, wherein the carbon-based negative active material comprises artificial graphite, wherein the conductive agent comprises at least one of a fiber-shaped conductive agent having a length of 1 μm to 200 μm and a particle-shaped conductive agent having a size (long diameter) of 1 μm to 20 μm, and a DD (Degree of Divergence) value defined by Equation 1 of the negative electrode is 24 to 70: DD Degree of Divergence = I a /I total * 100 wherein, in Equation 1, I a is a sum of peak integral areas of the peaks at 2θ = 42.4±0.2 °, 43.4±0.2 °, 44.6±0.2 °, and 77.5±0.2 ° measured by XRD using a CuKα ray, and I total is a sum of peak integral areas of the peaks at 2θ=26.5±0.2 °, 42.4±0.2 °, 43.4±0.2 °, 44.6±0.2 °, 54.7±0.2 °, and 77.5±0.2 ° measured by XRD using a CuKα ray. I a is a sum of peak integral areas of the peaks at 2θ = 42.4±0.2 °, 43.4±0.2 °, 44.6±0.2 °, and 77.5±0.2 ° measured by XRD using a CuKα ray, and I total is a sum of peak integral areas of the peaks at 2θ=26.5±0.2 °, 42.4±0.2 °, 43.4±0.2 °, 44.6±0.2 °, 54.7±0.2 °, and 77.5±0.2 ° measured by XRD using a CuKα ray.
A dual component U-base fastener for connecting a first part having a rib to a second part having an aperture comprising: a u-shaped outer component comprising at least one rib retention barb; a u-shaped inner component comprising at least one aperture retention wing; and wherein the outer component and the inner component are separate and that are coupled together to create an assembled unit defining an interior rib receiving cavity with the at least one rib retention barb extending into the interior rib receiving cavity and the at least one aperture retention wing of the inner component extending exteriorly from the outer component . a u-shaped outer component comprising at least one rib retention barb; a u-shaped inner component comprising at least one aperture retention wing; and wherein the outer component and the inner component are separate and that are coupled together to create an assembled unit defining an interior rib receiving cavity with the at least one rib retention barb extending into the interior rib receiving cavity and the at least one aperture retention wing of the inner component extending exteriorly from the outer component .
A method for quantitative analysis of a polymer structure comprising steps of: (A) measuring molecular weight distribution of the polymer using GPC; (B) selecting one or more structural parameters that said polymer may have, one of said selected structural parameters being the polydispersity index (PDI) of the main chain, and assigning random values to said selected structural parameters; and (C) predicting the molecular weight distribution of the polymer to which the random value is assigned, and comparing said predicted molecular weight distribution value of the polymer with the measured molecular weight distribution value of the polymer to determine the value of the structural parameter of the polymer, wherein the molecular weight distribution is predicted by the following equation: P M = 1 M 2 πμ exp − ln M − μ 2 2 σ 2 wherein P(M) is a probability that a polymer having a molecular weight of M exists, σ 2 is a logarithm value of the polydispersity index (PDI) of the main chain, and μ represents a median value of the molecular weight distribution, wherein the median value of the molecular weight distribution means the difference between the logarithm value of the weight average molecular weight of the main chain and 1/2 of the logarithm value of the polydispersity index (PDI) of the main chain. (A) measuring molecular weight distribution of the polymer using GPC; (B) selecting one or more structural parameters that said polymer may have, one of said selected structural parameters being the polydispersity index (PDI) of the main chain, and assigning random values to said selected structural parameters; and (C) predicting the molecular weight distribution of the polymer to which the random value is assigned, and comparing said predicted molecular weight distribution value of the polymer with the measured molecular weight distribution value of the polymer to determine the value of the structural parameter of the polymer, wherein the molecular weight distribution is predicted by the following equation: P M = 1 M 2 πμ exp − ln M − μ 2 2 σ 2 wherein P(M) is a probability that a polymer having a molecular weight of M exists, σ 2 is a logarithm value of the polydispersity index (PDI) of the main chain, and μ represents a median value of the molecular weight distribution, wherein the median value of the molecular weight distribution means the difference between the logarithm value of the weight average molecular weight of the main chain and 1/2 of the logarithm value of the polydispersity index (PDI) of the main chain. wherein the molecular weight distribution is predicted by the following equation: P M = 1 M 2 πμ exp − ln M − μ 2 2 σ 2 wherein P(M) is a probability that a polymer having a molecular weight of M exists, σ 2 is a logarithm value of the polydispersity index (PDI) of the main chain, and μ represents a median value of the molecular weight distribution, wherein the median value of the molecular weight distribution means the difference between the logarithm value of the weight average molecular weight of the main chain and 1/2 of the logarithm value of the polydispersity index (PDI) of the main chain.
Method for controlling a technical device which is connected to a control apparatus via a network , wherein application data (21-24) for controlling the technical device and further data communication devices (11-13) are transmitted in the form of data traffic via the network , and the data traffic is captured by a monitoring apparatus over a predefined observation period by means of at least one data traffic parameter and is made available to the control apparatus , and at least one communication parameter is determined by the control apparatus from the at least one data traffic parameter , and the technical device is controlled using the at least one communication parameter. and the data traffic is captured by a monitoring apparatus over a predefined observation period by means of at least one data traffic parameter and is made available to the control apparatus , and at least one communication parameter is determined by the control apparatus from the at least one data traffic parameter , and the technical device is controlled using the at least one communication parameter.
An attaching member configured to be attached to a blood purification apparatus (B) including peristaltic pumps (P), the attaching member holding pump tubes (C) to be squeezed in a predetermined direction by the respective peristaltic pumps (P) for liquid delivery, the attaching member comprising: a body attachable to a predetermined position of the blood purification apparatus (B); and a holding portion attached to the body and that is configured to hold the pump tubes (C), wherein the body has a rear side which, in a state in which the attaching member is attached to the predetermined position (Ba) of the blood purification apparatus (B), is the side at which an attaching surface of the body faces the predetermined position (Ba) of the blood purification apparatus (B) and a front side opposite to the rear side, characterized in that the body has openings (H1, H2, H3, H4) configured to allow flexible tubes (r) that each allow liquid to flow through to pass through from the front side to the rear side of the body , and the flexible tubes (r) are securable by being passed through the openings (H1, H2, H3, H4). a body attachable to a predetermined position of the blood purification apparatus (B); and a holding portion attached to the body and that is configured to hold the pump tubes (C), wherein the body has a rear side which, in a state in which the attaching member is attached to the predetermined position (Ba) of the blood purification apparatus (B), is the side at which an attaching surface of the body faces the predetermined position (Ba) of the blood purification apparatus (B) and a front side opposite to the rear side, characterized in that the body has openings (H1, H2, H3, H4) configured to allow flexible tubes (r) that each allow liquid to flow through to pass through from the front side to the rear side of the body , and the flexible tubes (r) are securable by being passed through the openings (H1, H2, H3, H4).
An arrangement for electromagnetic interference, EMI, and electrostatic discharge, ESD, mitigation, the arrangement comprising: a harness having a shielding, which is adapted to electrically shield a plurality of cables of the harness ; a metallic tie base having an eyelet on a first surface; a tie wrap , wherein the shielding of the harness is directly connected to the eyelet of the tie base under use of the tie wrap ; a support structure to which a second surface opposite to the first surface of the metallic tie base is attached by an adhesive; a ground reference ; and an electrical conductor , wherein the ground reference is electrically connected to the tie base via the electrical conductor , wherein the electrical conductor is attached to the first surface of the metallic tie base , or wherein the electrical conductor is attached to the second surface of the metallic tie base ; and wherein a dimension (D) of the electrical conductor between the ground reference and the tie base is smaller than 15 cm, wherein the direct connection between the tie base and the shielding of the harness is established via the tie wrap tightened around the harness , wherein the tie wrap leads through the eyelet of the tie base and encircles the shielding of the harness . a harness having a shielding, which is adapted to electrically shield a plurality of cables of the harness ; a metallic tie base having an eyelet on a first surface; a tie wrap , wherein the shielding of the harness is directly connected to the eyelet of the tie base under use of the tie wrap ; a support structure to which a second surface opposite to the first surface of the metallic tie base is attached by an adhesive; a ground reference ; and an electrical conductor , wherein the ground reference is electrically connected to the tie base via the electrical conductor , wherein the electrical conductor is attached to the first surface of the metallic tie base , or wherein the electrical conductor is attached to the second surface of the metallic tie base ; and wherein a dimension (D) of the electrical conductor between the ground reference and the tie base is smaller than 15 cm, wherein the direct connection between the tie base and the shielding of the harness is established via the tie wrap tightened around the harness , wherein the tie wrap leads through the eyelet of the tie base and encircles the shielding of the harness .
A boom used with a telescopic structure in the telescopic crane so as to lift the loads that are at a far distance/depth, characterized by comprising; • an upper part which forms the upper section of said boom , is formed by bending from bending points determined at equal intervals and the strength of which is increased; • a lower part which forms the lower part of said boom , is formed by bending from at least 9 different bending points determined at equal intervals, characterised in that the upper part is formed by bending from at least 5 different bending points determined at equal intervals. • an upper part which forms the upper section of said boom , is formed by bending from bending points determined at equal intervals and the strength of which is increased; • a lower part which forms the lower part of said boom , is formed by bending from at least 9 different bending points determined at equal intervals, characterised in that the upper part is formed by bending from at least 5 different bending points determined at equal intervals.
A fuse positioning device , comprising: a fuse positioning template having a plurality of fuse positioning openings that each extend therethrough and are configured to align with a different fuse holder in a fuse relay center , and having solid portions adjacent the plurality of fuse positioning openings providing a fuse blocking portion of the fuse positioning template; and a fuse loading block having a plurality of fuse loading openings that extend through the fuse loading block, characterised in that the fuse loading block is configured to engage with a top surface of the fuse positioning template for sliding movement between a first position and a second position, wherein in the first position, each of the plurality of fuse loading openings is aligned with the fuse blocking portion of the fuse positioning template such that fuses loaded in the fuse loading openings are held in a respective fuse loading opening by the fuse blocking portion, and in a second position, each of the plurality of fuse loading openings aligns with a different one of the fuse positioning openings such that the fuses located in the fuse loading openings may be delivered through the fuse positioning openings to fuse holders in the fuse relay center. a fuse positioning template having a plurality of fuse positioning openings that each extend therethrough and are configured to align with a different fuse holder in a fuse relay center , and having solid portions adjacent the plurality of fuse positioning openings providing a fuse blocking portion of the fuse positioning template; and a fuse loading block having a plurality of fuse loading openings that extend through the fuse loading block, characterised in that the fuse loading block is configured to engage with a top surface of the fuse positioning template for sliding movement between a first position and a second position, wherein in the first position, each of the plurality of fuse loading openings is aligned with the fuse blocking portion of the fuse positioning template such that fuses loaded in the fuse loading openings are held in a respective fuse loading opening by the fuse blocking portion, and in a second position, each of the plurality of fuse loading openings aligns with a different one of the fuse positioning openings such that the fuses located in the fuse loading openings may be delivered through the fuse positioning openings to fuse holders in the fuse relay center.
A support ring suitable for conforming to a preferably uneven, for example convexly curved base, the support ring being implemented as a closed annulus of contiguous and variably shaped radial support tabs disposed in a star shape, characterized in that , axial holders (13a, b) protrude from the support tabs in pairs, by means of which the support tabs are contiguous and variably shaped, wherein holders (13a, b) facing each other of adjacent support tabs are bridged, forming an inner boundary of a circumferentially open slit flanked by the associated holders (13a, b) and support tabs .
A system comprising: a medical instrument including a sensing tool ; and a processing unit including one or more processors, wherein the processing unit is configured to: receive data related to a patient anatomy from the sensing tool while the medical instrument traverses the patient anatomy; construct an anatomic model of the patient anatomy based on the data received from the sensing tool ; update the anatomic model based on shape data obtained by the sensing tool while the medical instrument is located in a portion of the patient anatomy not represented by the anatomic model; and correlate a position of the medical instrument with the anatomic model. a medical instrument including a sensing tool ; and a processing unit including one or more processors, wherein the processing unit is configured to: receive data related to a patient anatomy from the sensing tool while the medical instrument traverses the patient anatomy; construct an anatomic model of the patient anatomy based on the data received from the sensing tool ; update the anatomic model based on shape data obtained by the sensing tool while the medical instrument is located in a portion of the patient anatomy not represented by the anatomic model; and correlate a position of the medical instrument with the anatomic model. receive data related to a patient anatomy from the sensing tool while the medical instrument traverses the patient anatomy; construct an anatomic model of the patient anatomy based on the data received from the sensing tool ; update the anatomic model based on shape data obtained by the sensing tool while the medical instrument is located in a portion of the patient anatomy not represented by the anatomic model; and correlate a position of the medical instrument with the anatomic model.
The in vitro use of a cationic hydroxyalkyl guar for maintaining or increasing the growth rate of microorganisms, wherein said cationic hydroxyalkyl guar has an average molecular weight of between 2,000 Daltons and 90,000 Daltons.
Grinding means for detachably fastening to a hook part of a hook-and-loop fastener of the hook-and-loop type comprising an upper layer comprising abrasive means and a lower textile layer connected to the upper layer by gluing, laminating or welding, the lower textile layer acting on the side of the textile layer remote from the upper layer, Loops formed by weaving or knitting techniques for detachably fastening to a hook part of a hook-and-loop type hook and loop fastener, wherein the textile layer has a surface weight of 75g/m 2 or less, characterised in that the upper layer is formed from adhesive and/or binding agent and abrasive arranged directly on the side of the textile layer facing the upper layer, or in that the upper layer has a carrier material on which the abrasive is applied to the side of the carrier material facing away from the textile layer, the carrier material being woven fabric, paper or film, the carrier material being joined with its underside to the side of the textile layer facing the upper layer by bonding, lamination or welding.
A quantum communications system comprising: a communications system ; and a quantum key distribution, QKD, system operable with the communications system and comprising a transmitter node , a receiver node , and a quantum communications channel coupling the transmitter node and receiver node , wherein the transmitter node comprises a continuous-variable QKD, CV-QKD, protocol device for generating the first QKD protocol, and a discrete-variable QKD, DV-QKD, protocol device for generating the second QKD protocol; the transmitter node configured to transmit to the receiver node a bit stream of optical pulses and switching between first and second QKD protocols based upon at least one channel condition. a communications system ; and a quantum key distribution, QKD, system operable with the communications system and comprising a transmitter node , a receiver node , and a quantum communications channel coupling the transmitter node and receiver node , wherein the transmitter node comprises a continuous-variable QKD, CV-QKD, protocol device for generating the first QKD protocol, and a discrete-variable QKD, DV-QKD, protocol device for generating the second QKD protocol; the transmitter node configured to transmit to the receiver node a bit stream of optical pulses and switching between first and second QKD protocols based upon at least one channel condition.
A radiator support duct made of a resin, the radiator support duct comprising a duct component configured to be arranged on one side in a vehicle longitudinal direction and a support component configured to be arranged on the other side in the vehicle longitudinal direction and having an intake passage , characterized in that the radiator support duct is configured to let air to be supplied to an engine flow through, therein from a first end portion to a second end portion in a vehicle width direction, both end portions of the support component in the vehicle width direction being configured to be joined to a vehicle body, and a lower side of the support component being configured to support a radiator , wherein in a main body area as an area in the vehicle width direction, the duct component includes rigid ribs that are at least formed on an outer surface toward the second end in the vehicle width direction from a reference point (P) centrally located in the vehicle width direction, the main body area being defined by excluding portions, in which all openings for introducing air or discharging the air are located in end portions in the vehicle width direction, from an elongated portion that extends in the vehicle width direction, and in the main body area, the number of the rigid ribs is larger, from the reference point (P), toward the second end in the vehicle width direction than toward the first end in the vehicle width direction. in a main body area as an area in the vehicle width direction, the duct component includes rigid ribs that are at least formed on an outer surface toward the second end in the vehicle width direction from a reference point (P) centrally located in the vehicle width direction, the main body area being defined by excluding portions, in which all openings for introducing air or discharging the air are located in end portions in the vehicle width direction, from an elongated portion that extends in the vehicle width direction, and in the main body area, the number of the rigid ribs is larger, from the reference point (P), toward the second end in the vehicle width direction than toward the first end in the vehicle width direction.