mhurhangee/patent-ind-claim-en huggingface dataset:
Method for data transfer, with the following steps: A) establishing a data connection with a connection key between a first communication partner and a second communication partner , B) encrypting the connection key for the data connection by the first communication partner and/or by the second communication partner with an additional key , C) sending a message containing an unencrypted part and a part encrypted with the connection key from the first communication partner to the second communication partner , wherein the unencrypted part of the message contains the connection key encrypted with the additional key , characterised in that a third communication partner is intentionally participating as a listener in the data connection , wherein the additional key is known to the third communication partner , and in a step D), the third communication partner decrypts the connection key encrypted with the additional key from the unencrypted part of the message , so it is possible for the third communication partner to read the encrypted part of the message . A) establishing a data connection with a connection key between a first communication partner and a second communication partner , B) encrypting the connection key for the data connection by the first communication partner and/or by the second communication partner with an additional key , C) sending a message containing an unencrypted part and a part encrypted with the connection key from the first communication partner to the second communication partner , wherein the unencrypted part of the message contains the connection key encrypted with the additional key , a third communication partner is intentionally participating as a listener in the data connection , wherein the additional key is known to the third communication partner , and in a step D), the third communication partner decrypts the connection key encrypted with the additional key from the unencrypted part of the message , so it is possible for the third communication partner to read the encrypted part of the message .
Method for producing a knitted fabric comprising a pattern, in which a sliver in form of a roving of fiber bundles that have not been strengthened is supplied to a roving drawing and strengthening unit , which comprises a stretching unit with at least two stretching roller pairs being successively arranged in thread transport direction (A) and a spinning nozzle device being arranged downstream of the stretching unit in the thread transport direction (A) and is drawn by the at least two stretching roller pairs , wherein at least one inlet roller pair and one outlet roller pair of the stretching unit are controllably driven according to the pattern of the knitted fabric to be formed on the knitting machine in such a way that the thread thickness (d, d') of the drawn roving is varied throughout its length by changing the relative speed between the inlet roller pair and the outlet roller pair , the drawn roving exiting the stretching unit is supplied to the spinning nozzle device and is strengthened by it by means of applying compressed air, and thereupon the drawn, strengthened roving is supplied to the knitting machine directly or by using a means for transport or clamping, characterized in that by controlling the rotation speed of at least one driven roller of the outlet roller pair of the stretching unit , the thread supply speed (v 3 ) of the drawn, strengthened roving to the knitting machine is set depending on the loop size to be knit by the knitting machine .
A refrigerator , comprising a cabinet and a door for opening and closing the cabinet , wherein the refrigerator further comprises a hinge body fixedly provided on the cabinet , wherein a positioning shaft and a guiding shaft are provided on the hinge body , and a positioning groove fitting with the positioning shaft and a guiding groove fitting with the guiding shaft are provided on the door , one of left and right sides of the refrigerator which is provided with the hinge body is a pivoting side, the door is in a first state when being closed, the door has a side wall close to the pivoting side in the first state and a front wall away from the cabinet in the first state, wherein a lateral ridge is formed by the side wall intersecting with the front wall , wherein the positioning groove has a first position close to the side wall and the front wall and a second position away from the side wall and the front wall compared with the first position, the guiding groove has a third position and a fourth position, and when the door is in the first state, the positioning shaft is located at the second position, and the guiding shaft is located at the fourth position; the guiding shaft and the guiding groove are provided such that when the door is opened from the first state, the door is rotated with the positioning shaft as a center of rotation, the positioning shaft is moved from the second position to the first position and the guiding shaft is moved from the fourth position to the third position with the limitation of the guiding shaft and the guiding groove , at this point, the door is opened at a certain angle to be in a second state, and the door is moved by a distance towards a side away from the pivoting side, so as to prevent the interference due to the protrusion of the lateral ridge of the door , because the lateral ridge may not protrude out of a position where the side wall is located when the door is in the first state, wherein the guiding groove has a rotation starting position away from the fourth position compared with the third position and a rotation ending position close to the side wall compared with the rotation starting position, the guiding groove is of an arc shape between the rotation starting position and the rotation ending position, and an angle of the arc is greater than or equal to 90 degrees, a center line of the arc is a center axis of the positioning shaft when located at a pivoting position.
An inspection device, comprising: an irradiation unit configured to irradiate an object with near infrared light; a spectral unit configured to disperse reflected light that is reflected from the object irradiated with the near infrared light; an imaging unit configured to take a spectroscopic image of the reflected light dispersed by the spectral unit; a spectral data obtaining module configured to obtain spectral data at a plurality of points on the object, based on the spectroscopic image obtained by the imaging unit; a dense spectral data group selecting module configured to select a group having a highest density of luminance values with regard to a predetermined wavelength component as a dense spectral data group, among the spectral data at the plurality of points; and an analyzing module configured to perform a predetermined analysis for the object, based on the dense spectral data group and thereby detect a different type of object. an irradiation unit configured to irradiate an object with near infrared light; a spectral unit configured to disperse reflected light that is reflected from the object irradiated with the near infrared light; an imaging unit configured to take a spectroscopic image of the reflected light dispersed by the spectral unit; a spectral data obtaining module configured to obtain spectral data at a plurality of points on the object, based on the spectroscopic image obtained by the imaging unit; a dense spectral data group selecting module configured to select a group having a highest density of luminance values with regard to a predetermined wavelength component as a dense spectral data group, among the spectral data at the plurality of points; and an analyzing module configured to perform a predetermined analysis for the object, based on the dense spectral data group and thereby detect a different type of object.
An electrothermal ice protection system "IPS" installed on an aircraft, the electrothermal IPS comprising: a sensor configured to monitor a direction of a local incident airflow imparted on the sensor ; a parting strip assembly coupled to a critical surface of a leading edge of a wing of the aircraft, the parting strip assembly including a plurality of heating sections; and a controller in signal communication with the sensor and the parting strip assembly, the controller configured to determine a direction of surface airflow incident on a critical surface of the aircraft based on the local incident airflow, and to selectively concentrate power to at least one targeted heating section among the plurality of heating sections with respect to non-targeted heating sections among the plurality of heating sections based on the direction of the surface airflow. a sensor configured to monitor a direction of a local incident airflow imparted on the sensor ; a parting strip assembly coupled to a critical surface of a leading edge of a wing of the aircraft, the parting strip assembly including a plurality of heating sections; and a controller in signal communication with the sensor and the parting strip assembly, the controller configured to determine a direction of surface airflow incident on a critical surface of the aircraft based on the local incident airflow, and to selectively concentrate power to at least one targeted heating section among the plurality of heating sections with respect to non-targeted heating sections among the plurality of heating sections based on the direction of the surface airflow.
A method of degassing semiconductor substrates comprising: sequentially loading a plurality of semiconductor substrates into a degas chamber of a degas apparatus ; degassing the semiconductor substrates in parallel, the degassing of each semiconductor substrate commencing at a different time related to the time at which the semiconductor substrate was loaded into the degas chamber of the degas apparatus ; and unloading a semiconductor substrate from the degas chamber of the degas apparatus when the semiconductor substrate has been degassed, while semiconductor substrates which were loaded later in the sequence are still being degassed; characterized in that the degassing of the semiconductor substrates is performed at pressure of less than 10 -4 Torr, and the degas apparatus is pumped continuously during the degassing of the semiconductor substrates. sequentially loading a plurality of semiconductor substrates into a degas chamber of a degas apparatus ; degassing the semiconductor substrates in parallel, the degassing of each semiconductor substrate commencing at a different time related to the time at which the semiconductor substrate was loaded into the degas chamber of the degas apparatus ; and unloading a semiconductor substrate from the degas chamber of the degas apparatus when the semiconductor substrate has been degassed, while semiconductor substrates which were loaded later in the sequence are still being degassed; characterized in that the degassing of the semiconductor substrates is performed at pressure of less than 10 -4 Torr, and the degas apparatus is pumped continuously during the degassing of the semiconductor substrates.
Electrode active material comprising (A) a core material according to general formula Li 1+x1 TM 1-x1 O 2 wherein TM is a combination of Ni and at least one of Mn, Co and Al, and, optionally, at least one more metal selected from Mg, Ti, Zr, Nb, Ta, and W, and x1 is in the range of from -0.05 to 0.2, and (B) particles of cobalt compound(s) and of aluminum compound(s) and of titanium compound(s) or of zirconium compound(s) wherein the molar ratio of lithium to cobalt in said particles is in the range of from zero to below 1 and wherein in particles (B) the molar ratio of Co to the sum of Al and Zr or Ti is in the range of from 2:1 to 50:1, and wherein said particles are attached to the surface of the core material. (A) a core material according to general formula Li 1+x1 TM 1-x1 O 2 wherein TM is a combination of Ni and at least one of Mn, Co and Al, and, optionally, at least one more metal selected from Mg, Ti, Zr, Nb, Ta, and W, and x1 is in the range of from -0.05 to 0.2, and (B) particles of cobalt compound(s) and of aluminum compound(s) and of titanium compound(s) or of zirconium compound(s) wherein the molar ratio of lithium to cobalt in said particles is in the range of from zero to below 1 and wherein in particles (B) the molar ratio of Co to the sum of Al and Zr or Ti is in the range of from 2:1 to 50:1, and wherein said particles are attached to the surface of the core material.
An acid addition salt of N -(5-((4-Ethylpiperazin-1-yl)methyl)pyridin-2-yl-5-fluoro-4-(3-isopropyl-2-methyl-2 H -indazol-5-yl)pyrimidin-2-amine in crystalline form, comprising the compound N -(5-((4-ethylpiperazin-1-yl)methyl)pyridin-2-yl-5-fluoro-4-(3-isopropyl-2-methyl-2 H -indazol-5-yl)pyrimidin-2-amine and hydrochloride (HCl) in about 1:1 molar ratio, in a crystalline form (Form A) characterized by an X-ray powder diffraction pattern comprising characteristic peaks at any three of diffraction angles 20 of approximately 4.7°, 9.2°, 11.2°, 19.5° and 28.3°.
An ultrasound system for use in monitoring a Valsalva Manoeuvre, performed by a subject, the ultrasound system comprising a computing apparatus configured to: receive a measurement of abdominal pressure for the subject whilst the subject is performing the Valsalva Manoeuvre wherein the measurement of abdominal pressure was measured using a sensor external to the body for measuring abdominal pressure; and determine an indication of whether the subject has effectively performed the Valsalva Manoeuvre by comparing the measurement of abdominal pressure for the subject whilst the subject is performing the Valsalva Manoeuvre to a reference abdominal pressure measured for the subject. receive a measurement of abdominal pressure for the subject whilst the subject is performing the Valsalva Manoeuvre wherein the measurement of abdominal pressure was measured using a sensor external to the body for measuring abdominal pressure; and determine an indication of whether the subject has effectively performed the Valsalva Manoeuvre by comparing the measurement of abdominal pressure for the subject whilst the subject is performing the Valsalva Manoeuvre to a reference abdominal pressure measured for the subject.
A synthetic promoter comprising (a) a nucleotide sequence comprising 4 to 20 transcription factor regulatory elements (TFREs) and (b) a promoter core, wherein the nucleotide sequence comprising the TRFEs is upstream of the promoter core, and wherein at least one third of the TFREs are individually selected from the group consisting of antioxidant RE (ARE), ETS binding site 1 (EBS1), endoplasmic reticulum stress RE (ERSE), and dioxin RE (DRE) TFREs.
An automatic cell detachment device comprising: a placing board , to which a culture vessel is to be fixed; a scraper for scraping away cells adhering to an inner bottom surface of the culture vessel , the scraper being strip-shaped; a chuck including a pair of claws configured to pinch an upper part of the scraper in a thickness direction of the scraper ; a lifting/lowering mechanism configured to lift and lower the chuck ; a holding stand configured to hold replacement scrapers in a state where an upper part of each replacement scraper is exposed; and a moving mechanism configured to move the chuck between the holding stand and the placing board . a placing board , to which a culture vessel is to be fixed; a scraper for scraping away cells adhering to an inner bottom surface of the culture vessel , the scraper being strip-shaped; a chuck including a pair of claws configured to pinch an upper part of the scraper in a thickness direction of the scraper ; a lifting/lowering mechanism configured to lift and lower the chuck ; a holding stand configured to hold replacement scrapers in a state where an upper part of each replacement scraper is exposed; and a moving mechanism configured to move the chuck between the holding stand and the placing board .
An earphone plugging and unplugging detection circuit, comprising: a left sound channel pin, in the following denoted by L pin, a first pin which can be connected and disconnected with the L pin, a right sound channel pin, in the following denoted by R pin, and a second pin which can be connected and disconnected with the R pin, wherein the first pin forms a first normally closed connection with the L pin and the second pin forms a second normally closed connection with the R pin, wherein the circuit also comprises a left detection signal line connected with said first pin and a right detection signal line connected with the second pin, wherein the left detection signal line is not electrically connected with the right detection signal line, the left detection signal line is connected or configured with a first pull-up resistor, the right detection signal line is connected or configured with a second pull-up resistor, the L pin is connected with a first pull-down resistor, and the R pin is connected with a second pull-down resistor, pull-down capabilities of the first pull-down resistor and the second pull-down resistor are much stronger than pull-up capabilities of the first pull-up resistor and the second pull-up resistor, and when an earphone is not plugged in, the left detection signal line and the right detection signal line are both pulled down to a low level, when the earphone is plugged in, the L pin and the R pin are disconnected electrically with the first pin and the second pin respectively, the left detection signal line and the right detection signal line are both pulled up to a high level, and the earphone plugging is detected; when one of the first normally closed connection and the second normally closed connection fails, one of the first and second pins is the high level and the other is the low level, then it is considered that there is no earphone plugged in, and when the earphone is plugged in, a pair of still working earphone spring leaves are disconnected and separated with each other electrically, both the first and second pins are the high level, then it is considered that an insertion of the earphone is detected.
Composition comprising, in a topically acceptable medium: (a) phycocyanin, (b) resveratrol or a glucoside thereof in a weight ratio to phycocyanin of from 0.1:1 to 3:1, (c) tocopherol or its acetate in a weight ratio to phycocyanin of from 0.1:1 to 3:1, (d) ascorbyl methylsilanol pectinate in a weight ratio to phycocyanin of from 0.05:1 to 0.2:1, (e) an effective amount of capryloyl glycine, (f) pH adjusters in an effective amount to set the pH from 6.0 to 6.5, and (g) an effective amount of a citrate phosphate buffer. (a) phycocyanin, (b) resveratrol or a glucoside thereof in a weight ratio to phycocyanin of from 0.1:1 to 3:1, (c) tocopherol or its acetate in a weight ratio to phycocyanin of from 0.1:1 to 3:1, (d) ascorbyl methylsilanol pectinate in a weight ratio to phycocyanin of from 0.05:1 to 0.2:1, (e) an effective amount of capryloyl glycine, (f) pH adjusters in an effective amount to set the pH from 6.0 to 6.5, and (g) an effective amount of a citrate phosphate buffer.
A method for determining the total carbonylation level on a polypeptide wherein the method comprises the steps of: a) contacting the polypeptide in a solution with a hydrazide dye such that the hydrazide dye can react with the carbonyl groups present on the amino acid residues of the polypeptide to form a polypeptide-dye-complex, wherein the hydrazide dye is Lucifer Yellow carbohydrazide (LY-CH) and the contacting is in the presence of lithium MES buffer, b) removing unbound hydrazide dye from the resultant solution from step a), c) determining in the resultant solution from step b) the concentration of the hydrazide dye bound in the polypeptide-dye-complex and the concentration of the polypeptide bound in the polypeptide-dye-complex, and d) determining the total carbonylation level of the polypeptide based on the ratio of the concentration of the hydrazide dye bound in the polypeptide-dye-complex to the concentration of the polypeptide bound in the polypeptide-dye-complex; and wherein a correction for the absorbance of LY-CH and a correction for the absorbance of the polypeptide are performed. a) contacting the polypeptide in a solution with a hydrazide dye such that the hydrazide dye can react with the carbonyl groups present on the amino acid residues of the polypeptide to form a polypeptide-dye-complex, wherein the hydrazide dye is Lucifer Yellow carbohydrazide (LY-CH) and the contacting is in the presence of lithium MES buffer, b) removing unbound hydrazide dye from the resultant solution from step a), c) determining in the resultant solution from step b) the concentration of the hydrazide dye bound in the polypeptide-dye-complex and the concentration of the polypeptide bound in the polypeptide-dye-complex, and d) determining the total carbonylation level of the polypeptide based on the ratio of the concentration of the hydrazide dye bound in the polypeptide-dye-complex to the concentration of the polypeptide bound in the polypeptide-dye-complex; and
Process for preparing a gasoline composition, which comprises (a) admixing with a fossil alkylate base gasoline comprising: 90 vol-% or more C 5 -C 12 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, RON of at least 87, the alkylate base fuel in an amount in the range from 40 to 80 vol% based on the total gasoline composition; (b) a renewable naphtha distillate comprising: 90 vol-% or more C 5 -C 12 paraffins, 30 vol-% or more C 5 -C 6 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, the renewable naphtha distillate in an amount of 3 vol-% or more based on the total gasoline composition; and (c) one or more C 6 -C 12 iso-paraffins having a RON of at least 95, the one or more iso-paraffins in an amount in the range from 10 to 30 vol% based on the total gasoline composition, wherein the renewable naphtha distillate is in an amount of 3 vol-% or more based on the total gasoline composition, and wherein the renewable content is determined by isotopic distribution involving 14C, 13C and/or 12C as described in ASTM D6866. (a) admixing with a fossil alkylate base gasoline comprising: 90 vol-% or more C 5 -C 12 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, RON of at least 87, the alkylate base fuel in an amount in the range from 40 to 80 vol% based on the total gasoline composition; 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, RON of at least 87, (b) a renewable naphtha distillate comprising: 90 vol-% or more C 5 -C 12 paraffins, 30 vol-% or more C 5 -C 6 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, the renewable naphtha distillate in an amount of 3 vol-% or more based on the total gasoline composition; and 90 vol-% or more C 5 -C 12 paraffins, 30 vol-% or more C 5 -C 6 paraffins, 5 vol-% or less of naphthenes, 1 vol-% or less of aromatics, 1 vol-% or less of oxygenates, (c) one or more C 6 -C 12 iso-paraffins having a RON of at least 95, the one or more iso-paraffins in an amount in the range from 10 to 30 vol% based on the total gasoline composition,