mhurhangee/ep-ind-claims huggingface dataset:
A process of making a compound of formula comprising the steps of: a) addition of an amino compound H 2 NR to a compound of formula followed by cyclization to a compound of formula; wherein the wavy bond indicates an unspecified configuration of the adjacent double bond; and the amino compound H 2 NR is selected from the group consisting of alkylamides, sulfonamides and carbamates; b) isomerization of compound of formula to a compound of formula; c) hydrolysis of compound of formula to compound of formula; wherein, in the compounds of formula,, and/or, R 1 represents methyl, ethyl, ethenyl, a linear, branched or cyclic C3-10 alkyl or alkenyl group, or a phenyl group, optionally substituted; and R 2, R 3, R 4, R 5 and R 6 each independently represent a hydrogen atom, methyl, ethyl, ethenyl, methoxy, ethoxy, ethenoxy, a linear, branched or cyclic C3-10 alkyl, alkenyl or alkoxy group, a halogen atom or a phenyl group, optionally substituted, and wherein the process is carried out in a one-pot procedure. a) addition of an amino compound H 2 NR to a compound of formula followed by cyclization to a compound of formula; wherein the wavy bond indicates an unspecified configuration of the adjacent double bond; and the amino compound H 2 NR is selected from the group consisting of alkylamides, sulfonamides and carbamates; b) isomerization of compound of formula to a compound of formula; c) hydrolysis of compound of formula to compound of formula; R 1 represents methyl, ethyl, ethenyl, a linear, branched or cyclic C3-10 alkyl or alkenyl group, or a phenyl group, optionally substituted; and R 2, R 3, R 4, R 5 and R 6 each independently represent a hydrogen atom, methyl, ethyl, ethenyl, methoxy, ethoxy, ethenoxy, a linear, branched or cyclic C3-10 alkyl, alkenyl or alkoxy group, a halogen atom or a phenyl group, optionally substituted, and wherein the process is carried out in a one-pot procedure.
A method of forming a keypad, the method comprising: providing: a substrate having a plurality of donut-shaped recesses located at each site of a key button for inputting user information; a plurality of polymer cushions each filled with an incompressible fluid; a flex circuit layer; a plurality of metal membrane; a plurality of plastic adhesive layers; and a thermoplastic elastomer layer; forming a plurality of switch assemblies by following steps: adhering a cushion to each of the plurality of donut-shaped recesses; placing a flex circuit layer above all of the cushions; adhering the plurality of metal membranes to the flex circuit layer; and swaging the plurality of switch assemblies to the substrate; over-molding the thermoplastic elastomer layer over the plurality of switch assemblies to form a keypad, and deflating each of the cushions by removing the incompressible fluid such that a cavity is formed between each of the plurality of metal membranes and the flex circuit layer. providing: a substrate having a plurality of donut-shaped recesses located at each site of a key button for inputting user information; a plurality of polymer cushions each filled with an incompressible fluid; a flex circuit layer; a plurality of metal membrane; a plurality of plastic adhesive layers; and a thermoplastic elastomer layer; a substrate having a plurality of donut-shaped recesses located at each site of a key button for inputting user information; a plurality of polymer cushions each filled with an incompressible fluid; a flex circuit layer; a plurality of metal membrane; a plurality of plastic adhesive layers; and a thermoplastic elastomer layer; forming a plurality of switch assemblies by following steps: adhering a cushion to each of the plurality of donut-shaped recesses; placing a flex circuit layer above all of the cushions; adhering the plurality of metal membranes to the flex circuit layer; and swaging the plurality of switch assemblies to the substrate; adhering a cushion to each of the plurality of donut-shaped recesses; placing a flex circuit layer above all of the cushions; adhering the plurality of metal membranes to the flex circuit layer; and swaging the plurality of switch assemblies to the substrate; over-molding the thermoplastic elastomer layer over the plurality of switch assemblies to form a keypad, and deflating each of the cushions by removing the incompressible fluid such that a cavity is formed between each of the plurality of metal membranes and the flex circuit layer.
A method performed by a user equipment, UE, comprising: receiving information corresponding to a plurality of uplink carriers, wherein the information comprises a random access channel, RACH, common configuration, a time alignment, TA, timer common configuration, and an indication of a frequency of an uplink carrier; selecting an uplink carrier from the plurality of uplink carriers based upon the information, wherein the selecting the uplink carrier is based on comparing a Reference Signal Received Power, RSRP, of a downlink carrier, measured by the user equipment, to a threshold, wherein the selected uplink carrier has a low frequency in response to the RSRP being below the threshold, wherein the selected uplink carrier has a high frequency in response to the RSRP being above the threshold, and wherein the user equipment, UE, re-selects an appropriate uplink carrier in response to a transmission problem with a current uplink carrier; and performing random access using the selected uplink carrier. receiving information corresponding to a plurality of uplink carriers, wherein the information comprises a random access channel, RACH, common configuration, a time alignment, TA, timer common configuration, and an indication of a frequency of an uplink carrier; selecting an uplink carrier from the plurality of uplink carriers based upon the information, wherein the selecting the uplink carrier is based on comparing a Reference Signal Received Power, RSRP, of a downlink carrier, measured by the user equipment, to a threshold, wherein the selected uplink carrier has a low frequency in response to the RSRP being below the threshold, wherein the selected uplink carrier has a high frequency in response to the RSRP being above the threshold, and wherein the user equipment, UE, re-selects an appropriate uplink carrier in response to a transmission problem with a current uplink carrier; and wherein the selecting the uplink carrier is based on comparing a Reference Signal Received Power, RSRP, of a downlink carrier, measured by the user equipment, to a threshold, wherein the selected uplink carrier has a low frequency in response to the RSRP being below the threshold, wherein the selected uplink carrier has a high frequency in response to the RSRP being above the threshold, and wherein the user equipment, UE, re-selects an appropriate uplink carrier in response to a transmission problem with a current uplink carrier; and performing random access using the selected uplink carrier.
Electronic module, comprising a first circuit board with electronic components, spacers, which are arranged resting at least in corner regions of the first circuit board, a cover plate, wherein the cover plate is arranged on the spacers, a potting compound, which as an end-face closure seals a gap produced by the spacers between the circuit board and the cover plate with respect to a housing for the electronic components arranged therein, wherein the potting compound secures the cover plate on the circuit board in a material-bonding manner, characterized in that the coefficient of linear thermal expansion of the potting compound coincides with the coefficient of linear thermal expansion of the circuit board and the cover plate to the extent that the deviation of the coefficient of linear thermal expansion between the CTE of the potting compound, the CTE of the circuit board and the CTE of the cover plate is a maximum of 10 ppm/K, wherein the potting compound is arranged on a carrier plate and in particular the first circuit board is arranged resting directly on the carrier plate, wherein more preferably a cable is arranged lying on the outer upper side of the cover plate to an electronic add-on part of a third circuit board on the carrier plate, wherein particularly preferably the first circuit board is formed at a distance from the carrier plate, in particular by means of the potting compound as a carrier component, with an interspace and, in particular, the interspace is filled with a heat sink and/or a heat conducting film.
An articulated model comprising - a torso, - a plurality of limbs (4, 5, 6, 7) connected to the torso and having respective joints (4a, 4b, 4c, 5a, 5b, 5c, 6a, 6b, 6c, 7a, 7b, 7c), the joints (4a, 4b, 4c, 5a, 5b, 5c, 6a, 6b, 6c, 7a, 7b, 7c) comprising at least one first joint comprising two portions (8a, 8b) rotatably connected to rotate relative to each other about a predetermined axis of rotation and means for stopping the rotation, the stopping means comprising a shape impediment designed to be inserted between the two portions (8a, 8b) to prevent the reciprocal rotation of them about the axis, characterised in that the stopping means comprise an elastic element designed to keep the shape impediment in a condition of stopping the rotation and a pushbutton designed to overcome the elastic action of the elastic element to bring the shape impediment into a condition of releasing the rotation. - a torso, - a plurality of limbs (4, 5, 6, 7) connected to the torso and having respective joints (4a, 4b, 4c, 5a, 5b, 5c, 6a, 6b, 6c, 7a, 7b, 7c), the joints (4a, 4b, 4c, 5a, 5b, 5c, 6a, 6b, 6c, 7a, 7b, 7c) comprising at least one first joint comprising two portions (8a, 8b) rotatably connected to rotate relative to each other about a predetermined axis of rotation and means for stopping the rotation, the stopping means comprising a shape impediment designed to be inserted between the two portions (8a, 8b) to prevent the reciprocal rotation of them about the axis, characterised in that the stopping means comprise an elastic element designed to keep the shape impediment in a condition of stopping the rotation and a pushbutton designed to overcome the elastic action of the elastic element to bring the shape impediment into a condition of releasing the rotation.
A thermostat diagnostic apparatus comprising: a cooling medium temperature sensor; an engine operating condition sensor; and a malfunction diagnosing device configured to conduct a thermostat stuck-open malfunction diagnosis of a thermostat provided in a coolant flow passage of an engine installed in a mobile body based on a comparison of a real cooling medium temperature detected by the cooling medium temperature sensor and an estimated cooling medium temperature estimated based on an engine operating condition of the engine detected by the engine operating condition sensor, the malfunction diagnosing device determining that the thermostat is stuck in an open state upon determining that either the estimated cooling medium temperature or the real cooling medium temperature exceeds a prescribed reference value during a period in which an increased heat exchange rate condition of a radiator is satisfied continuously, wherein the malfunction diagnosing device is further configured to: variably set a prescribed speed of the mobile body based on an engine rotational speed such that as the engine rotational speed becomes higher, the prescribed speed is set to a smaller value; and determine that the increased heat exchange rate condition of the radiator is satisfied when a speed of the mobile body is higher than the prescribed speed. a cooling medium temperature sensor; an engine operating condition sensor; and a malfunction diagnosing device configured to conduct a thermostat stuck-open malfunction diagnosis of a thermostat provided in a coolant flow passage of an engine installed in a mobile body based on a comparison of a real cooling medium temperature detected by the cooling medium temperature sensor and an estimated cooling medium temperature estimated based on an engine operating condition of the engine detected by the engine operating condition sensor, the malfunction diagnosing device determining that the thermostat is stuck in an open state upon determining that either the estimated cooling medium temperature or the real cooling medium temperature exceeds a prescribed reference value during a period in which an increased heat exchange rate condition of a radiator is satisfied continuously, wherein the malfunction diagnosing device is further configured to: variably set a prescribed speed of the mobile body based on an engine rotational speed such that as the engine rotational speed becomes higher, the prescribed speed is set to a smaller value; and determine that the increased heat exchange rate condition of the radiator is satisfied when a speed of the mobile body is higher than the prescribed speed. variably set a prescribed speed of the mobile body based on an engine rotational speed such that as the engine rotational speed becomes higher, the prescribed speed is set to a smaller value; and determine that the increased heat exchange rate condition of the radiator is satisfied when a speed of the mobile body is higher than the prescribed speed.
Ear protector with a sound damping filter, comprising a membrane composed of a material for permitting the transmission of air with respect to the ear from the outside to the inside of the ear protector, characterized in that the membrane is composed of a non-porous material for permitting the transmission of air and water vapour with respect to the ear from the inside to the outside of the ear protector by way of absorption and evaporation process and preventing the transmission of water from the outside to the inside of the ear protector, the membrane being pre-stressed mounted in the sound damping filter, enabling a bigger membrane surface and hence bigger air and water vapour transport at the same sound attenuation.
A butene-1 polymer composition having MFR values of from 400 to 2000 g/10 min., measured according to ISO 1133 at 190°C with a load of 2.16 kg, comprising: A) a butene-1 homopolymer or a copolymer of butene-1 with one or more comonomers selected from ethylene and propylene, having a copolymerized comonomer content (C A) of up to 5% by mole; B) a copolymer of butene-1 with one or more comonomers selected from ethylene and propylene, having a copolymerized comonomer content (C B) of from 6% to 20% by mole; said composition having a total copolymerized comonomer content from 4% to 15% by mole, referred to the sum of A) and B), and a content of fraction soluble in xylene at 0°C of 60% by weight or less, determined on the total weight of A) and B). A) a butene-1 homopolymer or a copolymer of butene-1 with one or more comonomers selected from ethylene and propylene, having a copolymerized comonomer content (C A) of up to 5% by mole; B) a copolymer of butene-1 with one or more comonomers selected from ethylene and propylene, having a copolymerized comonomer content (C B) of from 6% to 20% by mole;
Installation for the production on site of medical gas comprising: - a gas purification unit capable of producing a purified gas from a feed gas, - a main gas line supplied with gas by the gas purification unit and comprising, in series, a first storage capacity for gas and a second storage capacity for purified gas, and - a secondary line fluidically connected to the main line, downstream of the first storage capacity for gas, and comprising a third storage capacity for gas, - at least one gas analysis device arranged so as to determine the content of the gas in at least one given impurity, downstream of the second and of the third capacity, - a first solenoid valve arranged on the main gas line between the first storage capacity for gas and the second storage capacity for gas, - a second solenoid valve arranged on the secondary gas line between the first capacity and the third storage capacity for gas, - a third solenoid valve arranged on the main gas line downstream of the second storage capacity for gas, - a fourth solenoid valve arranged on the secondary gas line downstream of the third storage capacity for gas, and - a control device controlling the opening or the closing of said solenoid valves (V1 to V4) in response to at least one signal for measuring the content in impurity received from said at least one gas analysis device. - a gas purification unit capable of producing a purified gas from a feed gas, - a main gas line supplied with gas by the gas purification unit and comprising, in series, a first storage capacity for gas and a second storage capacity for purified gas, and - a secondary line fluidically connected to the main line, downstream of the first storage capacity for gas, and comprising a third storage capacity for gas, - at least one gas analysis device arranged so as to determine the content of the gas in at least one given impurity, downstream of the second and of the third capacity, - a first solenoid valve arranged on the main gas line between the first storage capacity for gas and the second storage capacity for gas, - a second solenoid valve arranged on the secondary gas line between the first capacity and the third storage capacity for gas, - a third solenoid valve arranged on the main gas line downstream of the second storage capacity for gas, - a fourth solenoid valve arranged on the secondary gas line downstream of the third storage capacity for gas, and - a control device controlling the opening or the closing of said solenoid valves (V1 to V4) in response to at least one signal for measuring the content in impurity received from said at least one gas analysis device.
A method comprising: configuring a single port of a network device to support a first virtual device and a second virtual device, wherein a first plurality of network identifications is defined for the first virtual device and a second plurality of network identifications is defined for the second virtual device; forming a single internal spanning tree instance for both the first virtual device and the second virtual device; and creating a mapping table, wherein the mapping table contains information about at least one network identification and at least one corresponding multiple spanning tree mapping identification; wherein the creating includes combining network identifications defined for the first virtual device with network identifications defined for the second virtual device; and wherein the creating further includes, for a network identification defined for both the first virtual device and the second virtual device, selecting only one multiple spanning tree instance to correspond to the network identification. configuring a single port of a network device to support a first virtual device and a second virtual device, wherein a first plurality of network identifications is defined for the first virtual device and a second plurality of network identifications is defined for the second virtual device; forming a single internal spanning tree instance for both the first virtual device and the second virtual device; and creating a mapping table, wherein the mapping table contains information about at least one network identification and at least one corresponding multiple spanning tree mapping identification; wherein the creating includes combining network identifications defined for the first virtual device with network identifications defined for the second virtual device; and wherein the creating further includes, for a network identification defined for both the first virtual device and the second virtual device, selecting only one multiple spanning tree instance to correspond to the network identification.
A method for controlling a crusher comprising a first crushing member and a second crushing member defining a crusher setting of a crushing cavity into which material to be crushed is being fed, the method comprising: - measuring continuously instantaneous load on the crusher; - recording instantaneous load peaks exceeding a predetermined target level for the load peaks; - keeping track of the number of the load peaks exceeding the predetermined target level during predetermined periods of time; the method being further characterized by: - controlling loading of the crusher on the basis of the number of the load peaks experienced by the crusher during the predetermined periods of time, wherein the loading of the crusher is decreased if the number of the load peaks exceeds a predetermined value during a predetermined period of time, and wherein the loading of the crusher is increased again if the number of the load peaks does not reach another predetermined value during a predetermined period of time. - measuring continuously instantaneous load on the crusher; - recording instantaneous load peaks exceeding a predetermined target level for the load peaks; - keeping track of the number of the load peaks exceeding the predetermined target level during predetermined periods of time; - controlling loading of the crusher on the basis of the number of the load peaks experienced by the crusher during the predetermined periods of time, wherein the loading of the crusher is decreased if the number of the load peaks exceeds a predetermined value during a predetermined period of time, and wherein the loading of the crusher is increased again if the number of the load peaks does not reach another predetermined value during a predetermined period of time.
A pharmaceutical composition for use in the treatment of atopic dermatitis in a subject having one or more moderate to severe skin excoriations, the composition comprising nemolizumab or an equivalent thereof and a pharmaceutically acceptable carrier,; wherein the equivalent to nemolizumab is selected from (i) an anti-IL-31RA antibody with heavy chains comprising at least 55% amino acid sequence identity to nemolizumab's heavy chain sequence, or (ii) an anti-IL-31RA antibody with light chains comprising at least 55% amino acid sequence identity to nemolizumab's light chain sequence, or (iii) an anti-IL-31RA antibody with variable regions comprising at least 55% amino acid sequence identity to nemolizumab's variable region sequences, or (iv) an anti-IL-31RA antibody with complementarity-determining regions (CDRs) comprising at least 55% amino acid sequence identity to nemolizumab's CDR sequences, or (v) an anti-IL-31RA antibody that bind to the same isoform of IL-31RA as nemolizumab, optionally the same epitope of IL-31RA, or (vi) antibodies that block or neutralize IL-31RA. (i) an anti-IL-31RA antibody with heavy chains comprising at least 55% amino acid sequence identity to nemolizumab's heavy chain sequence, or (ii) an anti-IL-31RA antibody with light chains comprising at least 55% amino acid sequence identity to nemolizumab's light chain sequence, or (iii) an anti-IL-31RA antibody with variable regions comprising at least 55% amino acid sequence identity to nemolizumab's variable region sequences, or (iv) an anti-IL-31RA antibody with complementarity-determining regions (CDRs) comprising at least 55% amino acid sequence identity to nemolizumab's CDR sequences, or (v) an anti-IL-31RA antibody that bind to the same isoform of IL-31RA as nemolizumab, optionally the same epitope of IL-31RA, or (vi) antibodies that block or neutralize IL-31RA.