mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a processor ; a plurality of transceivers ; and a memory in communication with the processor , the memory comprising executable instructions that, when executed by the processor , cause the electronic device to perform functions of: while a first transceiver is active, identifying, from among the plurality of transceivers and based on signal quality, current temperature, and cooling capacity of each of the plurality of transceivers , a second transceiver to handover transmission of signal to from the first transceiver ; and handing over transmission of the signal from the first transceiver to the identified second transceiver , wherein the instructions further cause the processor to cause the electronic device to perform functions of: determining an amount of time it will take the first transceiver to reach a threshold temperature; and handing over transmission of the signal from the first transceiver to the identified second transceiver before the amount of time is reached. a processor ; a plurality of transceivers ; and a memory in communication with the processor , the memory comprising executable instructions that, when executed by the processor , cause the electronic device to perform functions of: while a first transceiver is active, identifying, from among the plurality of transceivers and based on signal quality, current temperature, and cooling capacity of each of the plurality of transceivers , a second transceiver to handover transmission of signal to from the first transceiver ; and handing over transmission of the signal from the first transceiver to the identified second transceiver , wherein the instructions further cause the processor to cause the electronic device to perform functions of: determining an amount of time it will take the first transceiver to reach a threshold temperature; and handing over transmission of the signal from the first transceiver to the identified second transceiver before the amount of time is reached. while a first transceiver is active, identifying, from among the plurality of transceivers and based on signal quality, current temperature, and cooling capacity of each of the plurality of transceivers , a second transceiver to handover transmission of signal to from the first transceiver ; and handing over transmission of the signal from the first transceiver to the identified second transceiver , wherein the instructions further cause the processor to cause the electronic device to perform functions of: determining an amount of time it will take the first transceiver to reach a threshold temperature; and handing over transmission of the signal from the first transceiver to the identified second transceiver before the amount of time is reached. determining an amount of time it will take the first transceiver to reach a threshold temperature; and handing over transmission of the signal from the first transceiver to the identified second transceiver before the amount of time is reached.
Thread feeding device for feeding a thread to a textile machine with a housing , a storage device, from which the thread is drawn off by the textile machine, a winding element for winding the thread onto the storage device, a drivable shaft with an axis (A) for driving the winding element , a magnet arrangement for fixing the storage device onto the housing , wherein the storage device has a storage body and a wobble body , wherein a wobble unit is formed from the wobble body of the storage device and a wobble bearing unit , wherein the wobble body comprises a bush and conveying elements connected to the bush which are arranged in axially extending openings of the storage body , wherein the wobble bearing unit comprises a bearing bush arranged on the shaft with at least one wobble section having an oblique cylindrical casing surface , the axis (B1, B2) of which runs obliquely to the axis (A) of the shaft , and comprises at least one bearing arranged on the bearing bush for supporting the bush , wherein the wobble unit is designed in a separation section (S1) to convey yarn windings (W) wound onto the storage body with a spacing between one another, wherein the conveying element can be moved out through the openings over an enveloping surface of the storage body , characterised in that the wobble unit is designed in an accumulation section (S2), which adjoins the separation section (S1) and is arranged above a draw-off height of the storage body , to push the yarn windings (W) wound onto the storage body without any spacing from one another in the direction of the lower edge of the storage body .
Computer-implemented method of estimating a full shape of a lens of an eye from measurements of the lens taken in-vivo by optical imaging techniques, the measurements comprising visible portions of the lens through the pupil, the method comprises defining non-visible portions of the lens parting from the in-vivo measurements and using a geometrical model of a lens previously built from ex-vivo measurements, wherein the method comprises: - fitting the in-vivo measurements to a first parametric surface corresponding to an anterior surface (AL) of the lens and to a second parametric surface corresponding to a posterior surface (PL) of the lens; wherein defining the non-visible portions of the lens comprises: - extrapolating the first and second parametric surfaces to an extent given by a first parameter (α) to define a central region of the lens, the central region including the visible portions and an extrapolated non-visible portion; - using data from a part of the central region of the lens to define an equatorial region of the lens by at least a third parametric surface, the part being given by a second parameter (ρ); wherein the first and second parameters (α, ρ) are given by the geometrical model built from the ex-vivo measurements. wherein the method comprises: - fitting the in-vivo measurements to a first parametric surface corresponding to an anterior surface (AL) of the lens and to a second parametric surface corresponding to a posterior surface (PL) of the lens; - fitting the in-vivo measurements to a first parametric surface corresponding to an anterior surface (AL) of the lens and to a second parametric surface corresponding to a posterior surface (PL) of the lens; wherein defining the non-visible portions of the lens comprises: - extrapolating the first and second parametric surfaces to an extent given by a first parameter (α) to define a central region of the lens, the central region including the visible portions and an extrapolated non-visible portion; - using data from a part of the central region of the lens to define an equatorial region of the lens by at least a third parametric surface, the part being given by a second parameter (ρ); - extrapolating the first and second parametric surfaces to an extent given by a first parameter (α) to define a central region of the lens, the central region including the visible portions and an extrapolated non-visible portion; - using data from a part of the central region of the lens to define an equatorial region of the lens by at least a third parametric surface, the part being given by a second parameter (ρ); wherein the first and second parameters (α, ρ) are given by the geometrical model built from the ex-vivo measurements.
A method of manufacture of a reflective mirror comprising: thixotropically molding a magnesium AZ91-D alloy to produce a magnesium substrate having a first surface ; single point diamond turning the first surface of the magnesium substrate to produce a reflective surface of the mirror, having a surface finish of less than 80Å RMS. thixotropically molding a magnesium AZ91-D alloy to produce a magnesium substrate having a first surface ; single point diamond turning the first surface of the magnesium substrate to produce a reflective surface of the mirror, having a surface finish of less than 80Å RMS.
A method for fabricating a light emitting diode (LED), the method comprising: forming layers of materials on a substrate, the layers of materials including a first semiconductor layer , a second semiconductor layer , and a light emitting layer between the first and second semiconductor layers for producing light responsive to passing current through the light emitting layer ; shaping the formed layers of material into at least one semiconductor structure ; forming a first electrical contact on a first circuitry substrate and bonding the first electrical contact on the first circuitry substrate to a top of the semiconductor structure to form the first electrical contact on top of the semiconductor structure ; removing the semiconductor structure from the substrate; forming a second electrical contact at a bottom of the semiconductor structure , wherein the second electrical contact is at least partially transparent; the first electrical contact being connected to a contact pad on the first circuitry substrate ; and connecting the second electrical contact to another contact pad on a second circuitry substrate . forming layers of materials on a substrate, the layers of materials including a first semiconductor layer , a second semiconductor layer , and a light emitting layer between the first and second semiconductor layers for producing light responsive to passing current through the light emitting layer ; shaping the formed layers of material into at least one semiconductor structure ; forming a first electrical contact on a first circuitry substrate and bonding the first electrical contact on the first circuitry substrate to a top of the semiconductor structure to form the first electrical contact on top of the semiconductor structure ; removing the semiconductor structure from the substrate; forming a second electrical contact at a bottom of the semiconductor structure , wherein the second electrical contact is at least partially transparent; the first electrical contact being connected to a contact pad on the first circuitry substrate ; and connecting the second electrical contact to another contact pad on a second circuitry substrate .
A process of making a compound having the formula: and salts thereof, comprising: a. reacting ( S )-abscisic acid with an alkylating agent to form an ester; b. treating the compound resulting from Step a with a base and methylating agent in a solvent; and c. and hydrolyzing the compounds resulting from Step b. a. reacting ( S )-abscisic acid with an alkylating agent to form an ester; b. treating the compound resulting from Step a with a base and methylating agent in a solvent; and c. and hydrolyzing the compounds resulting from Step b.
Belting for use in a conveyor, wherein the belting comprises: a fabric base; and an environmentally friendly rubber composition applied to at least one surface of the fabric base, wherein the environmentally friendly rubber composition comprises: a rubber component; a filler provided at a concentration of between 50 and 150 parts per hundred by weight of the rubber component; a processing oil comprising soybean oil that is devoid of aromatic oil, wherein the processing oil is provided at a concentration of between 30 and 60 parts per hundred by weight of the rubber component; and a vulcanizing agent provided at a concentration of between 1 and 10 parts per hundred by weight of the rubber component, wherein the environmentally friendly rubber composition exhibits a tensile strength of between 13790kPa (2,000 psi) and 17237kPa (2,500 psi), an elongation of between 500% and 600%, and a Din abrasion of less than 250 mm3. a fabric base; and an environmentally friendly rubber composition applied to at least one surface of the fabric base, wherein the environmentally friendly rubber composition comprises: a rubber component; a filler provided at a concentration of between 50 and 150 parts per hundred by weight of the rubber component; a processing oil comprising soybean oil that is devoid of aromatic oil, wherein the processing oil is provided at a concentration of between 30 and 60 parts per hundred by weight of the rubber component; and a vulcanizing agent provided at a concentration of between 1 and 10 parts per hundred by weight of the rubber component, wherein the environmentally friendly rubber composition exhibits a tensile strength of between 13790kPa (2,000 psi) and 17237kPa (2,500 psi), an elongation of between 500% and 600%, and a Din abrasion of less than 250 mm3. a rubber component; a filler provided at a concentration of between 50 and 150 parts per hundred by weight of the rubber component; a processing oil comprising soybean oil that is devoid of aromatic oil, wherein the processing oil is provided at a concentration of between 30 and 60 parts per hundred by weight of the rubber component; and a vulcanizing agent provided at a concentration of between 1 and 10 parts per hundred by weight of the rubber component, wherein the environmentally friendly rubber composition exhibits a tensile strength of between 13790kPa (2,000 psi) and 17237kPa (2,500 psi), an elongation of between 500% and 600%, and a Din abrasion of less than 250 mm3.
An electronic balance comprising : a balance main body including a weighing mechanism connected to a weighing pan ; a windshield having a door capable of opening and closing by sliding, and configured to form configured to form a weighing chamber by covering the weighing pan ; and an actuator configured to open and close the door, wherein the actuator includes a double-acting type air cylinder having two ports serving as air intake ports; an air pump to be connected to the two ports ; and two valves respectively interposed between the air pump and the two ports and configured to make the ports communicate with and shut off from the atmosphere; characterized in that the electronic balance further comprising: a control device configured to control the two valves to make the two ports communicate with the atmosphere when the air pump is stopped, wherein the all valves are configured to open and communicate with the atmosphere when the air pump stops, and after the door is automatically opened/closed, air is released to the atmosphere, and the load on the door is eliminated, and it becomes possible to smoothly manually move the door and to be stopped at an arbitrary position. a balance main body including a weighing mechanism connected to a weighing pan ; a windshield having a door capable of opening and closing by sliding, and configured to form configured to form a weighing chamber by covering the weighing pan ; and an actuator configured to open and close the door, wherein the actuator includes a double-acting type air cylinder having two ports serving as air intake ports; an air pump to be connected to the two ports ; and two valves respectively interposed between the air pump and the two ports and configured to make the ports communicate with and shut off from the atmosphere; characterized in that the electronic balance further comprising: a control device configured to control the two valves to make the two ports communicate with the atmosphere when the air pump is stopped, wherein the all valves are configured to open and communicate with the atmosphere when the air pump stops, and after the door is automatically opened/closed, air is released to the atmosphere, and the load on the door is eliminated, and it becomes possible to smoothly manually move the door and to be stopped at an arbitrary position.
An immunoglobulin G4 (IgG4) humanized monoclonal anti-Programmed Death-1 (PD-1) antibody for use in treating cancer in a human, wherein the antibody is to be administered at a first dose of 500 mg once every 3 weeks (Q3W) for 4 cycles, followed by a second dose of 1000 mg once every 6 weeks (Q6W); wherein the antibody comprises an immunoglobulin heavy chain whose amino acid sequence comprises SEQ ID NO:3 and an immunoglobulin light chain whose amino acid sequence comprises SEQ ID NO:4.
A radar device characterised by : at least one transceiver configured to support frequency modulated (FM) radar signals; a digital controller ; and a temperature sensor system comprising a plurality of temperature sensors coupled to various circuits in the at least one transceiver ; wherein the digital controller is configured to monitor a temperature of the various circuits by polling temperature values of the plurality of temperature sensors . at least one transceiver configured to support frequency modulated (FM) radar signals; a digital controller ; and a temperature sensor system comprising a plurality of temperature sensors coupled to various circuits in the at least one transceiver ; wherein the digital controller is configured to monitor a temperature of the various circuits by polling temperature values of the plurality of temperature sensors .
Reciprocating-piston pump , having drive by way of an electromagnet which acts counter to a restoring spring , having a first displacement chamber and a second displacement chamber , which are separated by a piston moved by the electromagnet , and having a flow transfer valve device for connecting the two displacement chambers (3; 4) to one another, wherein the first displacement chamber is connected to an inlet by way of a valve device controlled by the piston , wherein the valve device permits a volume flow to the first displacement chamber , wherein, when the electromagnet is not electrically energized, the piston is pushed into its outlet-side end position by the restoring spring , and wherein, when the electromagnet is electrically energized, the piston is pushed into its inlet-side end position counter to the restoring spring , characterized in that the valve device limits the inflow of liquid into the first displacement chamber by temporary blockage of the volume flow to the first displacement space in a manner dependent on the position of the piston , in that the valve device contains a movable insert which is held in a closed rest position, in that , when the electromagnet is electrically energized, the piston interacts with the insert and releases the volume flow through the valve device into the first displacement chamber , and in that the limited inflow is smaller than the volumetric displacement capacity, made possible by the stroke of the piston , at a predefined working frequency of the reciprocating-piston pump .
Rotating machine comprising a shaft , a casing , at least one main magnetic bearing connected to the shaft for rotatably supporting said shaft inside the casing, at least one first and one second auxiliary rolling bearings positioned between the shaft and the casing to support axial and radial loads, said auxiliary rolling bearings each being provided with an inner ring , with an outer ring and with at least one row of rolling elements positioned between the rings, and first and second axial abutment means positioned on the shaft to transmit axial loads to the inner rings of the first and second rolling bearings, further comprising a spacer axially positioned between facing faces of the inner rings of said rolling bearings and mounted in axial contact with said faces for the transmission of the axial loads between said inner rings, and at least a first axial retaining means positioned on the casing and located axially between facing faces of the outer rings of the first and second rolling bearings for the transmission of the axial loads between at least one of said outer rings and the casing, characterised in that the rotating machine further comprises at least one pre-stressing and damping element exerting an axial force on each of the first and second rolling bearings, one pre-stressing and damping element being axially positioned between the first axial retaining means of the casing and the outer ring of each associated rolling bearing with an axial gap being provided between one of the pre-stressing and damping elements and the first axial retaining means .
An acoustic device comprising: an acoustic enclosure having walls defining an acoustic chamber, a first passive radiator diaphragm disposed in an opening of a first wall of the acoustic enclosure and configured to move parallel to a first axis that extends through a center of the first passive radiator diaphragm and orthogonal to the first wall in response to a pressure change in the acoustic chamber; a second passive radiator diaphragm disposed in an opening of a second wall of the acoustic enclosure and configured to move parallel to a second axis that extends through a center of the second passive radiator diaphragm and orthogonal to the second wall in response to a pressure change within the acoustic chamber; a first active driver assembly secured to the first passive radiator diaphragm; and a plurality of second active drivers assemblies each disposed in a respective opening in the second passive radiator diaphragm, each of the second active driver assemblies being laterally offset from the second axis, wherein a moving mass of the first passive radiator assembly is substantially equal to a moving mass of the second passive radiator assembly. an acoustic enclosure having walls defining an acoustic chamber, a first passive radiator diaphragm disposed in an opening of a first wall of the acoustic enclosure and configured to move parallel to a first axis that extends through a center of the first passive radiator diaphragm and orthogonal to the first wall in response to a pressure change in the acoustic chamber; a second passive radiator diaphragm disposed in an opening of a second wall of the acoustic enclosure and configured to move parallel to a second axis that extends through a center of the second passive radiator diaphragm and orthogonal to the second wall in response to a pressure change within the acoustic chamber; a first active driver assembly secured to the first passive radiator diaphragm; and a plurality of second active drivers assemblies each disposed in a respective opening in the second passive radiator diaphragm, each of the second active driver assemblies being laterally offset from the second axis, wherein a moving mass of the first passive radiator assembly is substantially equal to a moving mass of the second passive radiator assembly.
A magnetic-inductive flow meter, comprising a plurality of functional units , wherein each functional unit has at least one measuring tube for the flow of an electrically conductive medium, a magnetic field generating device for generating a magnetic field extending at least also perpendicular to the longitudinal axis of the measuring tube , and at least two measuring electrodes , wherein the virtual connecting line of the two measuring electrodes runs at least substantially perpendicular to the direction of the magnetic field passing through the measuring tube perpendicular to the longitudinal axis of the measuring tube , and wherein the magnetic field generating devices of all functional units each have at least one field coil , characterized in, that the magnetic-inductive flowmeter has a housing which is common to all functional units , that a common medium inflow connection or a common medium outflow connection is implemented in the housing for the measuring tubes of all functional units , and that the field coils of all functional units are connected in series. characterized in, that the magnetic-inductive flowmeter has a housing which is common to all functional units , that a common medium inflow connection or a common medium outflow connection is implemented in the housing for the measuring tubes of all functional units , and that the field coils of all functional units are connected in series.