mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a silica coated magnetic particles comprising combining magnetic particles and an alkoxysilane in a C1-4-alcohol in the absence of water to form a mixture; adding water and a hydroxide to the mixture of step such that the weight ratio of C1-4-alcohol to water in the mixture is 1:1 to 15:1 and heating the resulting mixture to a temperature in the range of 15 to 90°C in order to form silica coated magnetic particles; washing the silica coated magnetic particles of step with water and/or alcohol until the pH of the silica coated magnetic particles, when suspended, in water is between 8 and 11. combining magnetic particles and an alkoxysilane in a C1-4-alcohol in the absence of water to form a mixture; adding water and a hydroxide to the mixture of step such that the weight ratio of C1-4-alcohol to water in the mixture is 1:1 to 15:1 and heating the resulting mixture to a temperature in the range of 15 to 90°C in order to form silica coated magnetic particles; washing the silica coated magnetic particles of step with water and/or alcohol until the pH of the silica coated magnetic particles, when suspended, in water is between 8 and 11.
An operating movement detection device configured to detect a shaking movement performed in a first direction on an electronic device, the operating movement detection device comprising: an acquisition unit configured to acquire and store a first acceleration value in the first direction and a second acceleration value in a second direction different from the first direction, the first acceleration value and the second acceleration value being sensed by an acceleration sensor, the first acceleration value and second acceleration value being acquired at a plurality of timings, the first direction and the second direction being at approximately right angles to one another; a calculation unit configured to calculate a determination threshold based on the second acceleration values acquired in a first determination period and a threshold reference value; and a determination unit configured to determine, after the first determination period has lapsed, that the shaking movement has been performed if a number of times the stored first acceleration value exceeded the calculated determination threshold in a first determination period is equal to or more than a certain number. an acquisition unit configured to acquire and store a first acceleration value in the first direction and a second acceleration value in a second direction different from the first direction, the first acceleration value and the second acceleration value being sensed by an acceleration sensor, the first acceleration value and second acceleration value being acquired at a plurality of timings, the first direction and the second direction being at approximately right angles to one another; a calculation unit configured to calculate a determination threshold based on the second acceleration values acquired in a first determination period and a threshold reference value; and a determination unit configured to determine, after the first determination period has lapsed, that the shaking movement has been performed if a number of times the stored first acceleration value exceeded the calculated determination threshold in a first determination period is equal to or more than a certain number.
A composition for cartilage tissue repair, the composition being prepared by mixing collagen having a diluted concentration of 5-60 mg/mL water or a physiological phosphate buffer solution; and hyaluronic acid having a diluted concentration of 5-20 mg/mL water or a physiological phosphate buffer solution using a two-way syringe or a mixer.
A method of decoding an image, the method comprising: extracting a prediction mode of a current macro block that is decoded from an input bitstream and compensation value information used to compensate for a quantization loss of a prediction macro block, the prediction macro block being a prediction value of the current macro block; generating the prediction macro block of the current macro block according to the extracted prediction mode; compensating the prediction macro block based on the extracted compensation value information; and adding the compensated prediction macro block and a residual included in the bitstream to restore the current macro block, wherein the compensation value information comprises a compensation residual block obtained by inverse transforming difference values between a first transformed residual block generated by transforming a first residual block into a frequency domain and a second transformed residual block generated by quantizing and de-quantizing the first transformed residual block during encoding, the first residual block being a difference between the current macro block and the prediction macro block and wherein the compensating the prediction macro block comprises adding the compensation residual block included in the extracted compensation value information to the prediction macro block. extracting a prediction mode of a current macro block that is decoded from an input bitstream and compensation value information used to compensate for a quantization loss of a prediction macro block, the prediction macro block being a prediction value of the current macro block; generating the prediction macro block of the current macro block according to the extracted prediction mode; compensating the prediction macro block based on the extracted compensation value information; and adding the compensated prediction macro block and a residual included in the bitstream to restore the current macro block, wherein the compensation value information comprises a compensation residual block obtained by inverse transforming difference values between a first transformed residual block generated by transforming a first residual block into a frequency domain and a second transformed residual block generated by quantizing and de-quantizing the first transformed residual block during encoding, the first residual block being a difference between the current macro block and the prediction macro block and wherein the compensating the prediction macro block comprises adding the compensation residual block included in the extracted compensation value information to the prediction macro block.
Device for measuring an external pressure comprising: - a pressure sensor comprising a support and a ceramic membrane mounted on the support so as to be deformed under the effect of a change of external pressure, and - a measurement circuit comprising a strain gauge fixed to the ceramic membrane so as to exhibit an electrical property that is variable as a function of the position of said membrane, and an electronic component connected electrically to said strain gauge and configured to process a signal received from said strain gauge, the device being characterized in that the electronic component is fixed to the support and in that it comprises a connection pin linked to the support via a flexible connector, the flexible connector being a helical spring coated with a layer of gold, a sublayer of nickel extending between the spring and the layer of gold, ensuring an electrical connection between said electronic component and said pin. - a pressure sensor comprising a support and a ceramic membrane mounted on the support so as to be deformed under the effect of a change of external pressure, and - a measurement circuit comprising a strain gauge fixed to the ceramic membrane so as to exhibit an electrical property that is variable as a function of the position of said membrane, and an electronic component connected electrically to said strain gauge and configured to process a signal received from said strain gauge,
A headgear configured to couple to a user interface to retain the user interface on the user, the user interface configured to supply breathable gas to a user, the headgear comprising: - a headgear component comprising a backstrap having a first ear loop extending from one end of the backstrap and configured to extend about an ear of the user and a second ear loop extending from another end of the backstrap and configured to extend about another ear of the user, the first ear loop being configured to encircle one of the user's ears and the second ear loop being configured to encircle the other of the user's ears, - a head strap extending in use over a top of the user's head, the head strap comprising a first end and a second end; wherein each ear loop includes a first connection zone and a second connection zone, each of the first connection zone and second connection zone configured to be substantially interchangeable and to connect to one of an interface component and the head strap, wherein the first ear loop is a mirror image of the second ear loop considered relative to a reference plane bisecting the backstrap. - a headgear component comprising a backstrap having a first ear loop extending from one end of the backstrap and configured to extend about an ear of the user and a second ear loop extending from another end of the backstrap and configured to extend about another ear of the user, the first ear loop being configured to encircle one of the user's ears and the second ear loop being configured to encircle the other of the user's ears, - a head strap extending in use over a top of the user's head, the head strap comprising a first end and a second end; wherein each ear loop includes a first connection zone and a second connection zone, each of the first connection zone and second connection zone configured to be substantially interchangeable and to connect to one of an interface component and the head strap, wherein the first ear loop is a mirror image of the second ear loop considered relative to a reference plane bisecting the backstrap.
Fault diagnosis method for a motor vehicle, wherein the motor vehicle is an electric vehicle, wherein the motor vehicle comprises a first function unit, wherein the first function unit is configured to interact with a second function unit, wherein the second function unit is not a component of the motor vehicle, wherein the first function unit is a charger and the second function unit is a charging pillar, wherein the first function unit and the second function unit are connected to one another by means of a charging cable, wherein the charging cable is configured in such a way that information can be exchanged via a data connection of the charging cable, wherein the motor vehicle comprises a fault diagnosis device, wherein the charger is connected to the fault diagnosis device by means of a data bus, characterized by the steps which are successively carried out by the fault diagnosis device: • detecting a fault which has occurred or is occurring in combination with the first function unit and the second function unit, wherein the fault is unexpected aborting of a charging process, wherein the data connection of the charging cable continues to function as before, • carrying out self-diagnosis for faults of the charger and as a result determining whether a fault source of the fault lies outside the first function unit or not, • causing the charger to transmit, via the data connection of the charging cable, a diagnostic command to carry out self-diagnosis to the charging pillar, • receiving, from the charger, via the data bus diagnostic information which is determined by the charging pillar by means of the self-diagnosis of the charging pillar and is signalled to the charger via the data connection of the charging cable, • storing the fault source of the fault in a fault memory. • detecting a fault which has occurred or is occurring in combination with the first function unit and the second function unit, wherein the fault is unexpected aborting of a charging process, wherein the data connection of the charging cable continues to function as before, • carrying out self-diagnosis for faults of the charger and as a result determining whether a fault source of the fault lies outside the first function unit or not, • causing the charger to transmit, via the data connection of the charging cable, a diagnostic command to carry out self-diagnosis to the charging pillar, • receiving, from the charger, via the data bus diagnostic information which is determined by the charging pillar by means of the self-diagnosis of the charging pillar and is signalled to the charger via the data connection of the charging cable, • storing the fault source of the fault in a fault memory.
A compound of the formula and, and pharmaceutically acceptable salts and stereoisomers thereof: wherein A = N, O, S in formula, while A = N in formula; B = C, N; C = N, O in formula, while C = N in formula; X = CH 2, S; n = 0, 1; when n = 1, the carbon atom may be substituted with R 12 and R 13 being independently selected from the group comprising H, -Me, -phenyl, -F and -OH or together R 12 and R 13 can form a saturated cyclic moiety; when n = 1, R 6 is not absent; R 4 = R 5 = H, F; R 1 is absent or it is selected from the group comprising -H, -NH 2, -CH 3, -CH 2 CH 3, phenyl, p-fluorophenyl, m-chlorophenyl, p-chlorophenyl, benzyl, methylfuran, cyclopropyl, isobutyl, methylphenyl, trifluorophenyl, thiophene and 2- (morpholin-4-yl) ethyl; R 2 is absent or it is selected from H, phenyl, or p-dichlorophenyl; R 3 is absent or it is selected from H, o-methoxyphenyl, p-trifluoromethylphenyl, benzyl, or pyridyl; R 6 is selected from the group comprising: wherein: R 7 and R 8 are independently selected from the group comprising H, D, -Cl, -F, -Br, -CF 3, -Me, -Et, -OMe, -OMe, -OBenzyl, -SF 5, -OCH 2 F, -CH 2 NH 2, -CH 2 NMe 2, -NH 2, -NMe 2, -N (CH 2 CH 2 OCH 3) 2, -COOH, -COOMe, -OH, -NHNH 2, -NO 2, -OEt, -OCHF 2, -OiPr, -CHF 2, - NEt 2, or R 7 and R 8 together can form a heteropentacyclic moiety (-OCH 2 O-); R 9 = R 10 = -H, -Me, -Et; R 11 is selected from the group comprising -H, -Cl, -CH 3, -NO 2 and -Br; with the proviso that in the compounds of formula, when the pentaheterocyclic core is 1,3,4-oxadiazole, R 6 is not naphthyl. A = N, O, S in formula, while A = N in formula; B = C, N; C = N, O in formula, while C = N in formula; X = CH 2, S; n = 0, 1; when n = 1, the carbon atom may be substituted with R 12 and R 13 being independently selected from the group comprising H, -Me, -phenyl, -F and -OH or together R 12 and R 13 can form a saturated cyclic moiety; when n = 1, R 6 is not absent; R 4 = R 5 = H, F; R 1 is absent or it is selected from the group comprising -H, -NH 2, -CH 3, -CH 2 CH 3, phenyl, p-fluorophenyl, m-chlorophenyl, p-chlorophenyl, benzyl, methylfuran, cyclopropyl, isobutyl, methylphenyl, trifluorophenyl, thiophene and 2- (morpholin-4-yl) ethyl; R 2 is absent or it is selected from H, phenyl, or p-dichlorophenyl; R 3 is absent or it is selected from H, o-methoxyphenyl, p-trifluoromethylphenyl, benzyl, or pyridyl; R 6 is selected from the group comprising: wherein: R 7 and R 8 are independently selected from the group comprising H, D, -Cl, -F, -Br, -CF 3, -Me, -Et, -OMe, -OMe, -OBenzyl, -SF 5, -OCH 2 F, -CH 2 NH 2, -CH 2 NMe 2, -NH 2, -NMe 2, -N (CH 2 CH 2 OCH 3) 2, -COOH, -COOMe, -OH, -NHNH 2, -NO 2, -OEt, -OCHF 2, -OiPr, -CHF 2, - NEt 2, or R 7 and R 8 together can form a heteropentacyclic moiety (-OCH 2 O-); R 9 = R 10 = -H, -Me, -Et; R 11 is selected from the group comprising -H, -Cl, -CH 3, -NO 2 and -Br;
An aluminum paste for solar cells, containing aluminum, silicon, and strontium, wherein strontium is in metal form, and when the total mass of the aluminum, silicon, and strontium is defined as 100 mass%, the content of the silicon is 1 mass% or more and 60 mass% or less, the content of the strontium is 0.001 mass% or more and 10 mass% or less, and the remainder is the aluminum. wherein strontium is in metal form, and when the total mass of the aluminum, silicon, and strontium is defined as 100 mass%, the content of the silicon is 1 mass% or more and 60 mass% or less, the content of the strontium is 0.001 mass% or more and 10 mass% or less, and the remainder is the aluminum.
An elevator system having a guide system, wherein the elevator system comprises at least two counterweights and a car, wherein the guide system comprises a first solid guide rail and a second solid guide rail which individually guides a counterweight from the at least two counterweights, and each of the first solid guide rail and the second solid guide rail collectively guide the car, wherein each of the first solid guide rail and the second solid guide rail comprising a plurality of guide contours (6a, 6b, 10) adapted to engage with the counterweight and the car, characterized by the solid guide rails (2, 2') having at least one flange portion and at least one web portion, and the plurality of guide contours (6a, 6b, 10) is defined on at least one of the flange portion and the web portion.
A header for an agricultural harvesting machine comprising: • a header body consisting of a back wall, a pair of side walls and a floor portion extending between the side walls and in front of the back wall, • a first cutter bar for cutting crops at a first height, • a crop guiding mechanism mounted between the side walls and above or at the upper surface of the floor portion, for transporting the harvested crop portions that have been cut at the first height, towards a central area of the header. • a second cutter bar for cutting the remaining portion of the crops at a second height lower than the first height, and • a means for displacing the second cutter bar with respect to the header body without separating it from the header body, said displacement means being furthermore configured to store the second cutter bar in a position in which the second cutter bar is incapable of cutting crops, and wherein the header is operable with the first cutter bar as a single cutter bar, when the second cutter bar is in the stored position, the header being characterized in that it further comprises: • a compartment for storing the second cutter bar. • a header body consisting of a back wall, a pair of side walls and a floor portion extending between the side walls and in front of the back wall, • a first cutter bar for cutting crops at a first height, • a crop guiding mechanism mounted between the side walls and above or at the upper surface of the floor portion, for transporting the harvested crop portions that have been cut at the first height, towards a central area of the header. • a second cutter bar for cutting the remaining portion of the crops at a second height lower than the first height, and • a means for displacing the second cutter bar with respect to the header body without separating it from the header body, said displacement means being furthermore configured to store the second cutter bar in a position in which the second cutter bar is incapable of cutting crops, and wherein the header is operable with the first cutter bar as a single cutter bar, when the second cutter bar is in the stored position, • a compartment for storing the second cutter bar.
A processor (400, 500) for determining a phase of a receiving signal, comprising: an input register, which is configured for storing a receiving value of a receiving signal sampled with a known sampling frequency f s, said receiving signal representing a reaction to a transmitting signal having a known transmitting frequency f w; characterized by a first coefficient register and a second coefficient register, which are configured for storing a first Fourier coefficient and a second Fourier coefficient, said first Fourier coefficient denoting a linear relation between the receiving signal and a phase real part of the receiving signal, and said second Fourier coefficient denoting a linear relation between the receiving signal and a phase imaginary part of the receiving signal; a first output register and a second output register, which are configured for providing a phase real part and a phase imaginary part of the receiving signal; and a computing unit, which is configured for determining the phase real part of the receiving signal based on an averaged product of the receiving value with the content of the first coefficient register and for determining the phase imaginary part of the receiving signal based on an averaged product of the receiving value with the content of the second coefficient register. an input register, which is configured for storing a receiving value of a receiving signal sampled with a known sampling frequency f s, said receiving signal representing a reaction to a transmitting signal having a known transmitting frequency f w; characterized by a first coefficient register and a second coefficient register, which are configured for storing a first Fourier coefficient and a second Fourier coefficient, said first Fourier coefficient denoting a linear relation between the receiving signal and a phase real part of the receiving signal, and said second Fourier coefficient denoting a linear relation between the receiving signal and a phase imaginary part of the receiving signal; a first output register and a second output register, which are configured for providing a phase real part and a phase imaginary part of the receiving signal; and a computing unit, which is configured for determining the phase real part of the receiving signal based on an averaged product of the receiving value with the content of the first coefficient register and for determining the phase imaginary part of the receiving signal based on an averaged product of the receiving value with the content of the second coefficient register.
A steerable overtube for use in introducing an elongate medical device into the biliary or pancreatic duct of a patient, the overtube comprising: an elongate shaft extending between a proximal end and a distal end, said distal end having a distal end face; an oversized accessory channel extending at least partially through the elongate shaft, the oversized accessory channel being configured for the passage of the elongate medical device therethrough; a control mechanism operatively connected to the proximal end of the shaft for controlling one of bending and deflecting of the distal end of the shaft; a shape locking mechanism for temporarily maintaining the shape of the distal end of the shaft; and a fixation mechanism for securing the distal end of the shaft against movement relative to the patient; wherein the fixation mechanism comprises a distal anchoring device for temporarily securing the distal end of the overtube to a target tissue within the patient's anatomy; characterized in that the distal anchoring device comprises a plurality of openings disposed about a perimeter of and in the distal end face of the shaft through which suction can be applied to anchor the overtube to tissue surrounding the opening of the duct into the duodenum. an elongate shaft extending between a proximal end and a distal end, said distal end having a distal end face; an oversized accessory channel extending at least partially through the elongate shaft, the oversized accessory channel being configured for the passage of the elongate medical device therethrough; a control mechanism operatively connected to the proximal end of the shaft for controlling one of bending and deflecting of the distal end of the shaft; a shape locking mechanism for temporarily maintaining the shape of the distal end of the shaft; and a fixation mechanism for securing the distal end of the shaft against movement relative to the patient; wherein the fixation mechanism comprises a distal anchoring device for temporarily securing the distal end of the overtube to a target tissue within the patient's anatomy; characterized in that the distal anchoring device comprises a plurality of openings disposed about a perimeter of and in the distal end face of the shaft through which suction can be applied to anchor the overtube to tissue surrounding the opening of the duct into the duodenum.