mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an azide compound, comprising: reacting an alkylating agent with sodium azide in a flow reactor to produce an azide compound represented by the following general formula: Y-N 3 ··· wherein, Y represents a linear alkyl group having 1 to 2 carbon atoms in the state of a solution; and recovering the azide compound represented by the formula in the state of a solution, wherein the reaction is carried out at a reaction temperature ranging from 35°C to 80°C, and the boiling point of the azide compound produced is lower than the reaction temperature, wherein a solution containing the alkylating agent and a solution containing the sodium azide are respectively and separately introduced into the flow reactor, and the solvent of the solution containing the sodium azide contains water, and the solvent of the solution containing the alkylating agent is an organic solvent capable of dissolving the azide compound represented by the general formula and capable of undergoing phase separation with water, wherein the organic solvent is toluene, and the alkylating agent is a compound represented by formula (III-B): wherein, Y is the same as defined in the general formula.
Radiant panel, in particular suitable for domestic heating, comprising: - a heating body configured to be connected to a power supply terminal, - an energy store unit thermally coupled to the heating body comprising at least a phase change material with a predefined transition temperature from a first phase to a second phase, and being configured to adopt a discharged state and a charged state corresponding respectively to the first phase and to the second phase of the material thermally coupled with the heating body, the said panel comprising a receptacle within which extend the heating body and the store unit, and in which the heating body forms a front wall element of the receptacle and the receptacle comprises a rear wall element disposed distancially and facing the front wall element, the store unit extending between the two wall elements, characterized in that the heating body comprises a high emissivity substrate layer and a low emissivity electroconductive layer deposited on the substrate layer, the heating body being in the receptacle to generate a heat transfer substantially outwardly and a secondary heat transfer toward the store unit. - a heating body configured to be connected to a power supply terminal, - an energy store unit thermally coupled to the heating body comprising at least a phase change material with a predefined transition temperature from a first phase to a second phase, and being configured to adopt a discharged state and a charged state corresponding respectively to the first phase and to the second phase of the material thermally coupled with the heating body,
A crystalline potassium salt of which is in the form of an anhydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 26.7 Å; in the form of an anhydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 26.7 Å and d = 3.7 Å; in the form of a monohydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 26.5 Å; in the form of a monohydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 26.5 Å, d = 4.3 Å and d = 4.0 Å; in the form of a dihydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 27.1 Å; or in the form of a dihydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 27.1 Å, d = 4.2 Å and d = 4.1 Å, measured using CuKa1-radiation (λ = 1,5406 Å) at room temperature (between 20 and 25°C) in transmission mode. in the form of an anhydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 26.7 Å; in the form of an anhydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 26.7 Å and d = 3.7 Å; in the form of a monohydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 26.5 Å; in the form of a monohydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 26.5 Å, d = 4.3 Å and d = 4.0 Å; in the form of a dihydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 27.1 Å; or in the form of a dihydrate characterized by a X-ray powder diffraction pattern having a characteristic peak at d = 27.1 Å, d = 4.2 Å and d = 4.1 Å, measured using CuKa1-radiation (λ = 1,5406 Å) at room temperature (between 20 and 25°C) in transmission mode.
An isoquinoline-6-sulfonamide derivative represented by Formula, a salt thereof, or a solvate of the derivative or the salt: wherein X and Y each independently represent a direct bond, NH, CH=CH, O, or S; R 1 and R 2 each independently represent a hydrogen atom, a halogen atom, a cyano group, an alkyl group, a halogenoalkyl group, an alkenyl group, an alkoxy group, an alkylthio group, a hydroxyl group, a mercapto group, a nitro group, an aryl group, an amino group, or an aminoalkylthio group; R 3 and R 4 each independently represent a hydrogen atom, an alkyl group, an alkenyl group, an amino group, an alkylamino group, a dialkylamino group, an aminoalkyl group, a halogenoalkyl group, an alkanoyl group, an aminoalkanoyl group, an alkylaminoalkanoyl group, an alkoxycarbonyl group, a hydroxyl group, or a mercapto group, or R 3 and R 4 together form an alkylene group or an alkenylene group, which may be bridged between two carbon atoms to an arbitrary position; and 1, m, and n represent an integer number of 1 to 4.
A frame element for a laser gyroscope comprising a substrate, which comprises mobile ions, and an electrode fixed to said substrate, with at least one electrically conducting element being provided with at least one distal part that is integrated into said substrate, characterised in that said electrically conducting element is electrically connected to said electrode, and in that it has at least one point and/or at least one groove forming at least one blind hole and/or at least one groove in said substrate and having a shape that corresponds to that of said one or more distal parts so as to obtain a point effect.
A shielding structure comprising: first and second arrays (540, 545) of conductive elements defined in a first metallization layer on an integrated circuit, the conductive elements of the first array being connected together and extending between the conductive elements of the second array, the conductive elements of the second array being connected together; third and fourth arrays (560, 565) of conductive elements defined in a second metallization layer on the integrated circuit, the conductive elements of the third array being connected together and extending between the conductive elements of the fourth array, the conductive elements of the fourth array being connected together; and at least one signal line in a third metallization layer between the first and second arrays of conductive elements in the first metallization layer and the third and fourth arrays of conductive elements in the second metallization layer; and the first,second, third, and fourth arrays of conductive elements all being at the same potential. first and second arrays (540, 545) of conductive elements defined in a first metallization layer on an integrated circuit, the conductive elements of the first array being connected together and extending between the conductive elements of the second array, the conductive elements of the second array being connected together; third and fourth arrays (560, 565) of conductive elements defined in a second metallization layer on the integrated circuit, the conductive elements of the third array being connected together and extending between the conductive elements of the fourth array, the conductive elements of the fourth array being connected together; and at least one signal line in a third metallization layer between the first and second arrays of conductive elements in the first metallization layer and the third and fourth arrays of conductive elements in the second metallization layer; and the first,second, third, and fourth arrays of conductive elements all being at the same potential.
A magnesium alloy plate comprising: 0.5 to 10 wt% of zinc (Zn), 1 to 15 wt% of aluminum (Al), and a balance of magnesium (Mg) and inevitable impurities, wherein an average value of a texture intensity within a misorientation level of 30° or less is 3 or less based on an orientation of a plane, wherein a deviation of c/a values of a hexagonal closed packed crystal structure in the plate (Δc/a) is 5 or less, wherein Δc/a is calculated based on c/a values measured by TEM analysis at the points 1/4t and 1/2t by using the following inequalities, 0≤ |(c/a (1/4t) - c/a (1/2t)) | x (c/a (1/2t)) -1 x 100 ≤ 5, wherein c/a (1/4t) indicates an aspect ratio of a hexagonal close packed lattice structure at the point 1/4t in the thickness direction, and wherein c/a (1/2t) indicates an aspect ratio of a hexagonal close packed lattice structure at the point 1/2t in the thickness direction.
An immunogenic composition or vaccine composition comprising; protein SP1298 of S. pneumoniae and/or an immunogenic fragment(s) thereof and/or protein(s) having an identity of more than 70% and protein SP2205 of S. pneumoniae and/or an immunogenic fragments) thereof and/or protein(s) having an identity of more than 70% for use in medicine.
An access disconnect detector (10, 90), comprising: at least one radio-frequency transmitter (11, 93); at least one radio-frequency receiver (13, 94); and a mount suitable for mounting the at least one radio-frequency transmitter (11, 93) and at least one radio-frequency receiver (13, 94), wherein the mount and the at least one transmitter (11, 93) and receiver (13, 94) are configured for positioning adjacent an access site for detecting a presence of blood of a patient, and wherein the access site, in use, is positioned between the at least one radio-frequency transmitter (11, 93) and the at least one radio-frequency receiver (13, 94) so that the at least one radio-frequency receiver (13, 94) receives one level of signals from the at least one radio-frequency transmitter (11, 93) when the access site is dry and receives a lower level of signals when the access site is wetted. at least one radio-frequency transmitter (11, 93); at least one radio-frequency receiver (13, 94); and a mount suitable for mounting the at least one radio-frequency transmitter (11, 93) and at least one radio-frequency receiver (13, 94), wherein the mount and the at least one transmitter (11, 93) and receiver (13, 94) are configured for positioning adjacent an access site for detecting a presence of blood of a patient, and wherein the access site, in use, is positioned between the at least one radio-frequency transmitter (11, 93) and the at least one radio-frequency receiver (13, 94) so that the at least one radio-frequency receiver (13, 94) receives one level of signals from the at least one radio-frequency transmitter (11, 93) when the access site is dry and receives a lower level of signals when the access site is wetted.
A system for determining a state of health of an energy storage device, the system comprising: a signal generator circuit configured to generate and apply an excitation signal to at least one cell of the energy storage device; a first capacitive gain amplifier circuit coupled with the signal generator circuit and configured to generate a first output signal in response to the excitation signal, the first capacitive gain amplifier circuit including a first inverting input terminal; a control circuit configured to control operation of a first switch element coupled with the first inverting input terminal to control a DC bias voltage; and a back-end circuit configured to use the first output signal of the first capacitive gain amplifier circuit to determine a characteristic of the energy storage device that represents the state of health of the energy storage device. a signal generator circuit configured to generate and apply an excitation signal to at least one cell of the energy storage device; a first capacitive gain amplifier circuit coupled with the signal generator circuit and configured to generate a first output signal in response to the excitation signal, the first capacitive gain amplifier circuit including a first inverting input terminal; a control circuit configured to control operation of a first switch element coupled with the first inverting input terminal to control a DC bias voltage; and a back-end circuit configured to use the first output signal of the first capacitive gain amplifier circuit to determine a characteristic of the energy storage device that represents the state of health of the energy storage device.
A method of processing an image of an object under test to be analyzed, the method comprising: acquiring an image of the object under test, the image having a frame with a preferred axis and comprising a number of pixels; identifying an indicia of an angle of the object under test relative to the preferred axis; wherein the step of identifying the indicia further comprises: determining which, of the number of pixels, form a number of sets of edge pixels; determining which, of a number of sets of edge pixels, form a number of indicia candidate regions, each candidate region forming a polygon bounded by at least one of the number of sets of edge pixels; and determining the indicia from at least two of the number of indicia candidate regions; determining the angle between the preferred axis and the indicia and generating de-rotation information; and performing the analysis on the object under test by applying the de-rotation information without rotating the acquired image. acquiring an image of the object under test, the image having a frame with a preferred axis and comprising a number of pixels; identifying an indicia of an angle of the object under test relative to the preferred axis; wherein the step of identifying the indicia further comprises: determining which, of the number of pixels, form a number of sets of edge pixels; determining which, of a number of sets of edge pixels, form a number of indicia candidate regions, each candidate region forming a polygon bounded by at least one of the number of sets of edge pixels; and determining the indicia from at least two of the number of indicia candidate regions; determining which, of the number of pixels, form a number of sets of edge pixels; determining which, of a number of sets of edge pixels, form a number of indicia candidate regions, each candidate region forming a polygon bounded by at least one of the number of sets of edge pixels; and determining the indicia from at least two of the number of indicia candidate regions; determining the angle between the preferred axis and the indicia and generating de-rotation information; and performing the analysis on the object under test by applying the de-rotation information without rotating the acquired image.
A method for performing a vehicle-to-everything, V2X, operation for a wireless communication system, the method performed by a user equipment, UE, and the method comprising: determining a V2X resource set based on excluding a candidate resource from a candidate resource set, wherein the excluded candidate resource is determined based on a specific subframe in which a transmission is performed by the UE within a monitoring window of the UE; and performing the V2X operation based on the V2X resource set, and the method is characterized in that: wherein the excluded candidate resource is a R (X,Y), wherein X indicates the sub-channel and Y indicates the subframe of the excluded candidate resource; wherein the specific subframe is a subframe#(T SL M), and wherein the excluded candidate resource is determined based on Y and M satisfying a condition that: Y + J ∗ RR_--INVTX overlaps with M + P STEP ∗ I_CANVAL for at least one integer value of J from 0 to a Cresel-1, wherein ∗ represents multiplication, wherein the RR_INVTX is related to a resource reservation period, wherein the P_STEP is a positive integer which is predefined, wherein the I_CANVAL is related to a network-configured parameter, wherein M is a subframe index, and wherein the Cresel is a positive integer related to a resource reselection counter. determining a V2X resource set based on excluding a candidate resource from a candidate resource set, wherein the excluded candidate resource is determined based on a specific subframe in which a transmission is performed by the UE within a monitoring window of the UE; and performing the V2X operation based on the V2X resource set, and the method is characterized in that: wherein the excluded candidate resource is a R (X,Y), wherein X indicates the sub-channel and Y indicates the subframe of the excluded candidate resource; wherein the specific subframe is a subframe#(T SL M), and wherein the excluded candidate resource is determined based on Y and M satisfying a condition that: Y + J ∗ RR_--INVTX overlaps with M + P STEP ∗ I_CANVAL for at least one integer value of J from 0 to a Cresel-1, wherein ∗ represents multiplication, wherein the RR_INVTX is related to a resource reservation period, wherein the P_STEP is a positive integer which is predefined, wherein the I_CANVAL is related to a network-configured parameter, wherein M is a subframe index, and wherein the Cresel is a positive integer related to a resource reselection counter. Y + J ∗ RR_--INVTX overlaps with M + P STEP ∗ I_CANVAL for at least one integer value of J from 0 to a Cresel-1, wherein ∗ represents multiplication, wherein the RR_INVTX is related to a resource reservation period, wherein the P_STEP is a positive integer which is predefined, wherein the I_CANVAL is related to a network-configured parameter, wherein M is a subframe index, and wherein the Cresel is a positive integer related to a resource reselection counter.
An auricle clamp, comprising two clamp arms; and two springs located at two ends of the clamp arms respectively and that are used for connecting the two ends of the two clamp arms to form a closed-loop structure and providing a clamping force enabling the two clamp arms to be located close to each other, characterized in that: - each one of the two clamp arms is divided into a first segment and a second segment, the first and the second segment being rod-shaped and being joined at a hinge site; and - each one of the two clamp arms comprises a flexible lining wire inserted into the first segment and the second segment such that the first segment and the second segment are pivotally connected; wherein the two clamp arms are parallel when in an initial state and expand into an open state of quadrilateral shape, each of the first segment and the second segment of the two clamp arms being arranged on a different edge of the quadrilateral shape. - each one of the two clamp arms is divided into a first segment and a second segment, the first and the second segment being rod-shaped and being joined at a hinge site; and - each one of the two clamp arms comprises a flexible lining wire inserted into the first segment and the second segment such that the first segment and the second segment are pivotally connected;
A blood separation chamber, comprising: a single stage defined by an inner wall including a perimeter and an outer wall including a perimeter, wherein the inner and outer walls (26, 28) are joined along at least a portion of the perimeters of the inner and outer walls (26, 28); wherein the inner and outer walls (26, 28) are joined at first and second lateral edges (44, 46) of the perimeters; a blood inlet port connected to the single stage; a red blood cell outlet port connected to the single stage; a platelet-rich plasma outlet port connected to the single stage; a platelet-poor plasma outlet port connected to the single stage; and a buffy coat outlet port connected to the single stage, wherein the blood inlet and platelet-rich plasma outlet ports (32, 36) are connected to the single stage adjacent to the first lateral edge and to the region of the blood separation chamber into which blood is introduced, and the red blood cell, platelet-poor plasma, and buffy coat outlet ports (34, 38, 40) are connected to the single stage adjacent to the second lateral edge and to the opposite end of the blood separation chamber. a single stage defined by an inner wall including a perimeter and an outer wall including a perimeter, wherein the inner and outer walls (26, 28) are joined along at least a portion of the perimeters of the inner and outer walls (26, 28); wherein the inner and outer walls (26, 28) are joined at first and second lateral edges (44, 46) of the perimeters; a blood inlet port connected to the single stage; a red blood cell outlet port connected to the single stage; a platelet-rich plasma outlet port connected to the single stage; a platelet-poor plasma outlet port connected to the single stage; and a buffy coat outlet port connected to the single stage, wherein the blood inlet and platelet-rich plasma outlet ports (32, 36) are connected to the single stage adjacent to the first lateral edge and to the region of the blood separation chamber into which blood is introduced, and the red blood cell, platelet-poor plasma, and buffy coat outlet ports (34, 38, 40) are connected to the single stage adjacent to the second lateral edge and to the opposite end of the blood separation chamber.
A breast milk collection device (10; 200) to be secured within and supported by an ordinary or nursing brassiere worn by a lactating woman, the collection device comprising: a reservoir (18; 218) having an internal volume (30; 230) adapted to collect and store said milk expressed from said woman's breast, said reservoir being adapted to be supported by the brassiere; an adaptor (16; 216) adapted to fittingly and sealingly receive the woman's breast, said adaptor being received within said internal volume of said reservoir and adapted to be maintained in a fitted and sealed position connected to said reservoir; a source of vacuum pressure adapted to be detachably connected to said internal volume, said source being adapted for creating an alternating negative and positive pressure to encourage expression of milk from said breast; and a valve (74; 252, 254, 256) disposed between said adaptor and the reservoir adapted for alternately opening and closing fluid communication between said adaptor and said reservoir. a reservoir (18; 218) having an internal volume (30; 230) adapted to collect and store said milk expressed from said woman's breast, said reservoir being adapted to be supported by the brassiere; an adaptor (16; 216) adapted to fittingly and sealingly receive the woman's breast, said adaptor being received within said internal volume of said reservoir and adapted to be maintained in a fitted and sealed position connected to said reservoir; a source of vacuum pressure adapted to be detachably connected to said internal volume, said source being adapted for creating an alternating negative and positive pressure to encourage expression of milk from said breast; and a valve (74; 252, 254, 256) disposed between said adaptor and the reservoir adapted for alternately opening and closing fluid communication between said adaptor and said reservoir.
A negative electrode for lithium secondary batteries, containing an active material capable of absorbing/desorbing lithium ions and a binder, wherein the active material is a carbon-based material having a mean particle size of from 1 to 30 μm and a true density of from 1.90 to 2.00 g/cm 3 obtained from at least one starting material selected from a group consisting of petroleum cokes and coal cokes having a coefficient of thermal expansion at 30 to 100°C of from 4.8 × 10 -6 to 6.0 × 10 -6 /°C, wherein the active material is obtained by heat-treating the starting material in an inert gas atmosphere at 900 to 1900° C.