mhurhangee/ep-ind-claims huggingface dataset:
A negative electrode for a lithium secondary battery, the negative electrode comprising a lithium electrode layer on at least one surface of a current collector; wherein the lithium electrode layer comprises a lithium metal layer adjoining the at least one surface of the current collector, and a surface oxide layer having a thickness of 15 nm to 50 nm formed on the lithium metal layer; wherein the lithium metal layer comprises lithium metal or a lithium alloy; and wherein the surface oxide layer comprises a first oxide layer comprising Li 2 O; a second oxide layer comprising Li 2 O and LiOH; and a third oxide layer comprising Li 2 O, LiOH and Li 2 CO 3; wherein the first oxide layer has a thickness of 10 nm to 30 nm, the second oxide layer has a thickness of 4 nm to 15 nm, and the third oxide layer has a thickness of 1 nm to 5 nm. wherein the lithium electrode layer comprises a lithium metal layer adjoining the at least one surface of the current collector, and a surface oxide layer having a thickness of 15 nm to 50 nm formed on the lithium metal layer; wherein the lithium metal layer comprises lithium metal or a lithium alloy; and wherein the surface oxide layer comprises a first oxide layer comprising Li 2 O; a second oxide layer comprising Li 2 O and LiOH; and a third oxide layer comprising Li 2 O, LiOH and Li 2 CO 3; wherein the first oxide layer has a thickness of 10 nm to 30 nm, the second oxide layer has a thickness of 4 nm to 15 nm, and the third oxide layer has a thickness of 1 nm to 5 nm. a first oxide layer comprising Li 2 O; a second oxide layer comprising Li 2 O and LiOH; and a third oxide layer comprising Li 2 O, LiOH and Li 2 CO 3; wherein the first oxide layer has a thickness of 10 nm to 30 nm, the second oxide layer has a thickness of 4 nm to 15 nm, and the third oxide layer has a thickness of 1 nm to 5 nm.
A merchandise display security device for a portable electronic device having a removable component, the merchandise display security device comprising: a sensor configured to be secured to the portable electronic device; monitoring electronics configured to detect unauthorized removal of the sensor from the portable electronic device; and a secondary sensor in electrical communication with the monitoring electronics, characterized in, that the secondary sensor comprising a flexible component configured to be positioned between the portable electronic device and the removable component, wherein the monitoring electronics is configured to detect unauthorized removal of the removable component in response to movement of the flexible component. a sensor configured to be secured to the portable electronic device; monitoring electronics configured to detect unauthorized removal of the sensor from the portable electronic device; and a secondary sensor in electrical communication with the monitoring electronics, characterized in, that the secondary sensor comprising a flexible component configured to be positioned between the portable electronic device and the removable component, wherein the monitoring electronics is configured to detect unauthorized removal of the removable component in response to movement of the flexible component.
A method of forming a semiconductor structure, comprising: providing an insulation layer (18, 42) on a semiconductor layer; wherein providing the insulation layer on the semiconductor layer comprises forming and/or annealing the insulation layer in an environment containing nitrogen to nitridate the insulation layer and provide a nitridated insulation layer; depositing a cesium ion source on the nitridated insulation layer; wherein depositing the cesium ion source on the nitridated insulation layer comprises boiling the nitridated insulation layer in a CsCI solution, thereby forming CsCI on a surface of the nitridated insulation layer; diffusing cesium ions from the cesium ion source into the nitridated insulation layer, wherein diffusing the cesium ions into the nitridated insulation layer comprises annealing the nitridated insulation layer. providing an insulation layer (18, 42) on a semiconductor layer; wherein providing the insulation layer on the semiconductor layer comprises forming and/or annealing the insulation layer in an environment containing nitrogen to nitridate the insulation layer and provide a nitridated insulation layer; depositing a cesium ion source on the nitridated insulation layer; wherein depositing the cesium ion source on the nitridated insulation layer comprises boiling the nitridated insulation layer in a CsCI solution, thereby forming CsCI on a surface of the nitridated insulation layer; diffusing cesium ions from the cesium ion source into the nitridated insulation layer, wherein diffusing the cesium ions into the nitridated insulation layer comprises annealing the nitridated insulation layer.
An electrically heated smoking system (101, 201, 301) comprising a secondary unit (105, 205a, 205b, 305, 407) capable of receiving a smoking article (107, 207, 307, 411) having an aerosol-forming substrate, the secondary unit comprising: at least one heating element; an interface for connection to a primary power supply for supplying electrical power to the at least one heating element; a secondary power supply for supplying electrical power to the at least one heating element; and secondary circuitry arranged to control supply of electrical power from the primary power supply to the at least one heating element in a pre-heating mode during which the temperature of the aerosol-forming substrate is increased to an operating temperature, and arranged to control supply of electrical power from the secondary power supply to the at least one heating element in a smoking mode, during which the temperature of the aerosol-forming substrate is maintained at substantially the operating temperature. at least one heating element; an interface for connection to a primary power supply for supplying electrical power to the at least one heating element; a secondary power supply for supplying electrical power to the at least one heating element; and
Collapsible transporting trolley with a base, also with at least one wheel pair connected to the base which is fitted with wheels which can be folded towards and away from the base and with a handle which can be moved into at least one storage position folded against the base, a transporting position arranged at an angle to the base and into an extended handcart position in the direction of the base characterised in that - an operating element (20, 21) functionally independent of the handle for folding the wheels in or out is provided, wherein - the operating element (20, 21) is connected to a cross member connecting two longitudinal edge rods of the base to each other and wherein - the cross member is designed as a transporting cross member covering the operating element (20, 21) except for an operating button on the upper side. - an operating element (20, 21) functionally independent of the handle for folding the wheels in or out is provided, wherein - the operating element (20, 21) is connected to a cross member connecting two longitudinal edge rods of the base to each other and wherein - the cross member is designed as a transporting cross member covering the operating element (20, 21) except for an operating button on the upper side.
A system, comprising: a radiofrequency-current (RF-current) generator; an electrode operatively connected to the RF-current generator; and a processor, configured to: cause the RF-current generator to generate a plurality of pulses of RF current for application to tissue of a subject, each of the pulses having a power with a maximum value greater than 80 W and a duration less than 10 s, and an intermission between successive pulses, and while each one of the pulses is applied to the tissue, receive at least one signal from a temperature measuring device operatively connected to the processor, that indicates a measured temperature of the tissue, and, in response to the measured temperature, control the power of the pulse, characterized in that the intermission between successive pulses is between 2 and 5 s. a radiofrequency-current (RF-current) generator; an electrode operatively connected to the RF-current generator; and a processor, configured to: cause the RF-current generator to generate a plurality of pulses of RF current for application to tissue of a subject, each of the pulses having a power with a maximum value greater than 80 W and a duration less than 10 s, and an intermission between successive pulses, and while each one of the pulses is applied to the tissue, receive at least one signal from a temperature measuring device operatively connected to the processor, that indicates a measured temperature of the tissue, and, in response to the measured temperature, control the power of the pulse, cause the RF-current generator to generate a plurality of pulses of RF current for application to tissue of a subject, each of the pulses having a power with a maximum value greater than 80 W and a duration less than 10 s, and an intermission between successive pulses, and while each one of the pulses is applied to the tissue, receive at least one signal from a temperature measuring device operatively connected to the processor, that indicates a measured temperature of the tissue, and, in response to the measured temperature, control the power of the pulse,
A method for manufacturing a metal oxide semiconductor, the method comprising: depositing a film on a substrate from a mixed solution of at least two precursors in a solvent, wherein one of the at least two precursors is an indium alkoxide, another of the at least two precursors is a zinc alkoxide; and curing the film deposited on the substrate, in a water vapor environment, to form, from the mixed solution, a metal oxide semiconductor. depositing a film on a substrate from a mixed solution of at least two precursors in a solvent, wherein one of the at least two precursors is an indium alkoxide, another of the at least two precursors is a zinc alkoxide; and curing the film deposited on the substrate, in a water vapor environment, to form, from the mixed solution, a metal oxide semiconductor.
A prosthetic socket having a longitudinal axis X for attachment to a limb of a patient having first and second sides (A, B) comprises: a) a first portion having a first edge, a second edge a first end and a second end; b) a second portion having a first edge a second edge a first end and a second end characterised in that the prosthetic socket further comprises c) a hinge connecting the first edge of the first portion to the first edge of the second portion; and d) a clasp between the second edge of the first portion and the second edge of the second portion and wherein said clasp includes a screw thread adjuster for adjusting the position of the second portion relative to the first portion. a) a first portion having a first edge, a second edge a first end and a second end; b) a second portion having a first edge a second edge a first end and a second end characterised in that the prosthetic socket further comprises c) a hinge connecting the first edge of the first portion to the first edge of the second portion; and d) a clasp between the second edge of the first portion and the second edge of the second portion and wherein said clasp includes a screw thread adjuster for adjusting the position of the second portion relative to the first portion.
A device for centring of petri dishes, which petri dishes consist of a bottom container with a lateral surface and a lid with a lid diameter, which device comprises an elevator with an elevator axis and an elevator drive, by which the elevator is movable along the elevator axis, and a conveyor, which holds the petri dishes on a conveyor plane substantially rectangular to the elevator axis, characterized in that the conveyor comprises concentrically along the elevator axis a frustoconical through-hole tapering downwards from a first opening, which is located in the conveyor plane and is larger than the lid diameter of the petri dish, to a second opening, which is smaller than the lid diameter of the petri dish, and that the elevator drive is built to move a substantially flat plate, which is built to receive the petri dish, from a neutral position located in the conveyor plane downwards into a first position, which is reached as soon as the petri dish rests with its weight on the inner surface of the through-hole, wherein the elevator drive is built to rotate the plate around the elevator axis in order to rotate the plate during a movement of the plate from the neutral position into the first position.
A method for treating a surface of an implant, comprising: coating a surface treatment composition containing an organic material having a hydrophilic group and an inorganic salt on the surface of the implant (coating step); and drying the surface treatment composition (drying step), wherein: the inorganic salt promotes the drying of the surface treatment composition in the drying step and allows the entire surface of the implant coated with the surface treatment composition to be dried in a uniform rate and is sodium chloride; the concentration of the inorganic salt in the surface treatment composition is 200 mM or less; the organic material includes at least one selected from the group consisting of saccharides, proteins, acids and biological buffers or Good's buffers; the surface treatment composition is in an aqueous solution form; and a solid substance derived from the organic material and the inorganic salt is left on the surface of the implant by the drying step. the inorganic salt promotes the drying of the surface treatment composition in the drying step and allows the entire surface of the implant coated with the surface treatment composition to be dried in a uniform rate and is sodium chloride; the concentration of the inorganic salt in the surface treatment composition is 200 mM or less; the organic material includes at least one selected from the group consisting of saccharides, proteins, acids and biological buffers or Good's buffers; the surface treatment composition is in an aqueous solution form; and a solid substance derived from the organic material and the inorganic salt is left on the surface of the implant by the drying step.
A method for wireless communications by a user equipment, LTE, comprising: receiving signaling of a configuration parameter; receiving a request for an aperiodic channel state information, A-CSI, report; calculating a transmit power for the A-CSI report that is: independent of an actual number of channel quality indicator, CQI, bits to transmit in the A-CSI report when the configuration parameter is set to a first value, and dependent on the actual number of CQI bits to transmit in the A-CSI report when the configuration parameter is set to a second value; and transmitting the A-CSI report in accordance with the calculated transmit power. receiving signaling of a configuration parameter; receiving a request for an aperiodic channel state information, A-CSI, report; calculating a transmit power for the A-CSI report that is: independent of an actual number of channel quality indicator, CQI, bits to transmit in the A-CSI report when the configuration parameter is set to a first value, and dependent on the actual number of CQI bits to transmit in the A-CSI report when the configuration parameter is set to a second value; and independent of an actual number of channel quality indicator, CQI, bits to transmit in the A-CSI report when the configuration parameter is set to a first value, and dependent on the actual number of CQI bits to transmit in the A-CSI report when the configuration parameter is set to a second value; and transmitting the A-CSI report in accordance with the calculated transmit power.
A surgical cutting block, comprising: a block body including a top surface having a first thickness that extends between a first surface and an opposing second surface of said block body, said top surface extending in a horizontal plane; a capture disposed at said top surface, wherein said capture includes a second thickness that is less than said first thickness of said top surface, said capture including a slot configured to receive a cutting tool inserted through the slot and across the top surface to create an anterior cut in a bone, wherein the slot is adapted such that the cutting tool may be angled in the anterior direction relative to the horizontal plane; and at least one chamfer cutting guide slot (32A, 32B) that extends through said block body. a block body including a top surface having a first thickness that extends between a first surface and an opposing second surface of said block body, said top surface extending in a horizontal plane; a capture disposed at said top surface, wherein said capture includes a second thickness that is less than said first thickness of said top surface, said capture including a slot configured to receive a cutting tool inserted through the slot and across the top surface to create an anterior cut in a bone, wherein the slot is adapted such that the cutting tool may be angled in the anterior direction relative to the horizontal plane; and at least one chamfer cutting guide slot (32A, 32B) that extends through said block body.
A positive electrode for an air battery, characterized by comprising an expanded graphite sheet comprising an expanded graphite and a polyolefin resin, the bulk density of the expanded graphite sheet being from 0.5 g/cm 3 to 1.8 g/cm 3, the polyolefin resin being contained in an amount of from 3 parts by weight to 20 parts by weight with respect to 100 parts by weight of the expanded graphite, and the expanded graphite sheet having a surface resistivity of less than or equal to 70 mQ/sq.
A non-invasive living body measurement device comprising: a platform for placement of a finger of a subject that is a measurement target; a plurality of light emitting units arranged in a line along a lengthwise direction of the finger placed on the platform; a light amount adjustment unit configured to adjust a light amount of each of the plurality of light emitting units; an imaging unit configured to obtain an image of the finger placed on the platform by receiving transmitted light that passed through the finger when light is emitted from the light emitting units; and an information processing unit configured to detect biological information regarding the subject by processing the image obtained by the imaging unit, wherein the biological information is a hemoglobin value or a venous oxygenation index, and the light emitting units are each equipped with a plurality of light emitting devices (311A, 311B, 311C;...;316A, 316B, 316C) configured to emit light of mutually different wavelengths. a platform for placement of a finger of a subject that is a measurement target; a plurality of light emitting units arranged in a line along a lengthwise direction of the finger placed on the platform; a light amount adjustment unit configured to adjust a light amount of each of the plurality of light emitting units; an imaging unit configured to obtain an image of the finger placed on the platform by receiving transmitted light that passed through the finger when light is emitted from the light emitting units; and an information processing unit configured to detect biological information regarding the subject by processing the image obtained by the imaging unit, wherein the biological information is a hemoglobin value or a venous oxygenation index, and the light emitting units are each equipped with a plurality of light emitting devices (311A, 311B, 311C;...;316A, 316B, 316C) configured to emit light of mutually different wavelengths.
A mine material processing apparatus comprising: a rotatable drum to process mine material, and a plurality of wheel assemblies (530a-530f) configured for rotation of the rotatable drum, characterized in that, each wheel assembly comprises: an inner rim, an outer rim surrounding the inner rim, and a plurality of gas springs operatively coupled between said inner rim and said outer rim. a rotatable drum to process mine material, and a plurality of wheel assemblies (530a-530f) configured for rotation of the rotatable drum, characterized in that, each wheel assembly comprises: an inner rim, an outer rim surrounding the inner rim, and a plurality of gas springs operatively coupled between said inner rim and said outer rim. an inner rim, an outer rim surrounding the inner rim, and a plurality of gas springs operatively coupled between said inner rim and said outer rim.
A method comprising: a) performing at a server associated with a mobile switching center a Global Title Translation GTT on an incoming number to determine the hosting carrier of any mobile phone number associated with a call page; b) sending the result of the Global Title Translation GTT over a data channel to a receiving mobile device (30; 60); c) storing the result of the Global Title Translation GTT in memory of the receiving mobile device (30; 60) d) upon receipt of the call page at the receiving mobile device, comparing on the receiving mobile device (30; 60) the stored result of the Global Title Translation GTT to the receiving subscriber's carrier; and e) outputting the results of the comparison on the receiving mobile device (30; 60). a) performing at a server associated with a mobile switching center a Global Title Translation GTT on an incoming number to determine the hosting carrier of any mobile phone number associated with a call page; b) sending the result of the Global Title Translation GTT over a data channel to a receiving mobile device (30; 60); c) storing the result of the Global Title Translation GTT in memory of the receiving mobile device (30; 60) d) upon receipt of the call page at the receiving mobile device, comparing on the receiving mobile device (30; 60) the stored result of the Global Title Translation GTT to the receiving subscriber's carrier; and e) outputting the results of the comparison on the receiving mobile device (30; 60).
A wound care composition consisting of 2.78 % beeswax, 92.59 % medical olive oil with an acid ratio less than 0.8 %, and 4.63 % alkanna tinctoria by weight for use in a method of treating 2 nd degree burn wounds.
A suspension controlling apparatus for a vehicle, comprising: a suspension (22F, 22R) whose damping force is variably settable; and a control unit which is configured to calculate acceleration of the vehicle in a forward and rearward direction on the basis of brake hydraulic pressure detected by a hydraulic pressure sensor for detecting brake hydraulic pressure and is capable of controlling the damping force of the suspension (22F, 22R) with target damping force determined on the basis of the acceleration; the control unit including acceleration calculation means for calculating, upon ordinary braking, the acceleration on the basis of ordinary braking force corresponding to a detection value of the hydraulic pressure sensor but calculating, upon antilock braking control, the acceleration on the basis of given antilock brake controlling braking force, and characterised by the control unit has set therein in advance a variation amount limit value for limiting a variation amount of the target damping force. a suspension (22F, 22R) whose damping force is variably settable; and a control unit which is configured to calculate acceleration of the vehicle in a forward and rearward direction on the basis of brake hydraulic pressure detected by a hydraulic pressure sensor for detecting brake hydraulic pressure and is capable of controlling the damping force of the suspension (22F, 22R) with target damping force determined on the basis of the acceleration; the control unit including acceleration calculation means for calculating, upon ordinary braking, the acceleration on the basis of ordinary braking force corresponding to a detection value of the hydraulic pressure sensor but calculating, upon antilock braking control, the acceleration on the basis of given antilock brake controlling braking force, and characterised by the control unit has set therein in advance a variation amount limit value for limiting a variation amount of the target damping force.