mhurhangee/patent-ind-claim-en huggingface dataset:
A method for delivering a compound into a cell based on a physical property of said cell comprising: providing a cell suspension comprising one group of cells and another group of cells, wherein the cells of said one group have a relatively different size, diameter, and/or membrane stiffness than the cells of said other group; passing said cell suspension through a microfluidic channel that includes a constriction, said constriction being sized to deliver the compound to said one group of cells preferentially compared to said other group of cells, wherein passage through the constriction deforms said one group of cells preferentially compared to said other group of cells such that the compound is delivered into said one group of cells preferentially compared to said other group of cells;; and contacting said cell suspension comprising said one group of cells and said other group of cells with the compound, thereby delivering the compound into said one group of cells preferentially compared to said other group of cells. providing a cell suspension comprising one group of cells and another group of cells, wherein the cells of said one group have a relatively different size, diameter, and/or membrane stiffness than the cells of said other group; passing said cell suspension through a microfluidic channel that includes a constriction, said constriction being sized to deliver the compound to said one group of cells preferentially compared to said other group of cells, wherein passage through the constriction deforms said one group of cells preferentially compared to said other group of cells such that the compound is delivered into said one group of cells preferentially compared to said other group of cells;; and contacting said cell suspension comprising said one group of cells and said other group of cells with the compound, thereby delivering the compound into said one group of cells preferentially compared to said other group of cells.
A light shielding system configured to shield at least one eye of a patient from incident light for an electroretinogram comprising a substantially lighttight shielding box enclosing an inner space arranged to receive a hand held Ganzfeld stimulator, which box is mountable over the at least one eye of the patient; wherein the system comprises an adjustable head connection assembly, which is adjustable on a patient's head, the connection assembly including at least one opening allowing the Ganzfeld stimulator to illuminate the at least one eye of the patient, characterised in that the box includes at least one sleeve extending into the box to allow manipulation of the Ganzfeld stimulator.
A tap for dispensing a beverage, comprising (d) a housing defining a channel for dispensing a beverage, (e) a valve arranged in the housing allowing opening and closing the dispensing channel, said valve being operable by a handle and connected to a valve drive shaft and said handle connected or to be connected to a tap drive shaft, and (f) a gear transmission, characterized in that the gear transmission comprises at least two cooperating gear wheels, a first gear wheel coupled to the tap drive shaft and a second gear wheel coupled to the valve drive shaft, at least one of said gear wheels being removable from its shaft. (d) a housing defining a channel for dispensing a beverage, (e) a valve arranged in the housing allowing opening and closing the dispensing channel, said valve being operable by a handle and connected to a valve drive shaft and said handle connected or to be connected to a tap drive shaft, and (f) a gear transmission,
A recovery medium for detecting the presence of microorganisms, comprising: at least one mineral salt; and at least one fluorogenic substrate; wherein the recovery medium is clear in color and is substantially free of reducing sugar. at least one mineral salt; and at least one fluorogenic substrate; wherein the recovery medium is clear in color and is substantially free of reducing sugar.
A metallocene-catalyzed polyethylene resin having a multimodal molecular weight distribution, comprising from 45% by weight to 75% by weight of a low density fraction, said fraction having a density below or equal to 0.918 g/cm 3 as measured following the method of standard test ISO 1183 at a temperature of 23 °C; wherein the density of the polyethylene resin is from 0.920 to 0.945 g/cm 3 ; wherein the Mw/Mn of the polyethylene is of from 2.8 to 6; wherein the melt index MI 2 of the polyethylene resin of from 0.1 to 5 g/10min as measured following the method of standard test ISO 1133 Condition D at a temperature of 190 °C and under a load of 2.16 kg; wherein the composition distribution breadth index (CDBI) of the polyethylene resin is below 70%, as analyzed by quench TREF (temperature rising elution fractionation) analysis; and, wherein the polyethylene resin has a g rheo of less than 0.80, wherein g rheo can be determined according to: g rheo PE = M w SEC M w η 0 MWD SCB , wherein M w (SEC) is the weight average molecular weight obtained from size exclusion chromatography expressed in kDa, and wherein M w (η 0 , MWD, SCB) is determined according to the following: M w η 0 MWD SCB = exp 1.7789 + 0.199769 LnM n + 0.209026 Lnη 0 + 0.955 ln ρ − 0.007561 LnM z Lnη 0 + 0.02355 ln M z 2 wherein density p is measured in g/cm 3 and measured according to ISO 1183 at a temperature of 23°C, and wherein zero shear viscosity η0 in Pa.s is obtained from a frequency sweep experiment combined with a creep experiment, in order to extend the frequency range to values down to 10-4 s-1 or lower, and taking the usual assumption of equivalence of angular frequency (rad/s) and shear rate, and wherein zero shear viscosity η0 is estimated by fitting with Carreau-Yasuda flow curve (η-W) at a temperature of 190°C, obtained by oscillatory shear rheology on ARES-G2 equipment in the linear viscoelasticity domain, and wherein circular frequency (W in rad/s) varies from 0.05-0.1 rad/s to 250-500 rad/s, and the shear strain is typically 10 %, and wherein the creep experiment is carried out at a temperature of 190°C under nitrogen atmosphere with a stress level such that after 1200 s the total strain is less than 20 %.
Mold material mixture for producing molding forms and cores for metal processing, comprising at least: • a refractory mold base material; • an inorganic binder; and • particulate amorphous SiO 2 further containing zirconium compounds obtained by thermal decomposition of ZrSiO 4 to ZrO 2 and SiO 2 , wherein the content of zirconium in the particulate amorphous SiO 2 further containing zirconium compounds, calculated as ZrO 2 , is greater than 0.01 wt.% and less than 12 wt.%. • a refractory mold base material; • an inorganic binder; and • particulate amorphous SiO 2 further containing zirconium compounds obtained by thermal decomposition of ZrSiO 4 to ZrO 2 and SiO 2 , wherein the content of zirconium in the particulate amorphous SiO 2 further containing zirconium compounds, calculated as ZrO 2 , is greater than 0.01 wt.% and less than 12 wt.%.
Flame retardant protective glove , preferably in the form of a finger glove, having an outer shell comprising a palm side , a back side , an outer side and a thumb side , wherein the material in the back side , outer side and a thumb side comprises at least one first multilayer material (M1, M3) comprising an outer layer of a flame retardant material and said palm side comprises a second cohesive multilayer material (M2) different than said at least one first multilayer material (M1, M3), characterized in that said palm side comprises at least one palm part made of said second cohesive multilayer material (M2) having an outer coated layer of a flame retardant material comprising Chlorosulfonated Polyethylene and a second layer including at least 80% aramide fibers, suitably para-aramide fibers, wherein said second layer is in the form of an interlock knitted fabric and said second cohesive multilayer material (M2) has a surfacic mass of between 400 to 1200 g/m 2 , and a thickness of between 0,5 to 1,5 mm, and is resilient having an elongation at break (ε) of at least 20% in all directions.
An indoor device for an air conditioner, comprising: a heat exchanger mounting panel in which an orifice to pass air therethrough is formed; a centrifugal fan to inhale air in a shaft direction through the orifice and discharge the air in a radial direction; a motor to rotate the centrifugal fan ; and a case to fix the motor and couple the motor to the panel , characterized in that a first magnetic substance and a second magnetic substance that generate a repulsive force are respectively disposed at a first surface opposite to the centrifugal fan in the panel and a second surface opposite to the panel in the centrifugal fan , and in that in the first magnetic substance and the second magnetic substance , different poles are alternately formed in a radial direction. a heat exchanger mounting panel in which an orifice to pass air therethrough is formed; a centrifugal fan to inhale air in a shaft direction through the orifice and discharge the air in a radial direction; a motor to rotate the centrifugal fan ; and a case to fix the motor and couple the motor to the panel , characterized in that a first magnetic substance and a second magnetic substance that generate a repulsive force are respectively disposed at a first surface opposite to the centrifugal fan in the panel and a second surface opposite to the panel in the centrifugal fan , and in that in the first magnetic substance and the second magnetic substance , different poles are alternately formed in a radial direction.
A method for producing a carbon nanotube fiber aggregate by chemical vapor deposition (CVD) by spinning a raw material containing a carbon source in the presence of a carrier gas containing a reducing gas, wherein the molar ratio of the carbon source to the reducing gas (carbon source/reducing gas) is 0.033 or more and 0.05 or less and wherein the molar ratio of the carbon source to the reducing gas (carbon source/reducing gas) satisfies the following Equation 1 or Equation 2: y = 0.0288 e 107.58 ⁢ x 0.0288 e 107.58 ⁢ x − 0.7 ≤ y ≤ 0.0288 e 107.58 ⁢ x + 0.3 wherein, y is the elongation at break, and x is the molar ratio of the carbon source to the reducing gas, to control the strength of the carbon nanotube fiber aggregate, wherein the reducing gas comprises hydrogen gas, ammonia gas, or a mixed gas thereof, and wherein the raw material for spinning is a liquid or gaseous carbon compound having a catalyst precursor dispersed therein. wherein, y is the elongation at break, and x is the molar ratio of the carbon source to the reducing gas, to control the strength of the carbon nanotube fiber aggregate, wherein the reducing gas comprises hydrogen gas, ammonia gas, or a mixed gas thereof, and wherein the raw material for spinning is a liquid or gaseous carbon compound having a catalyst precursor dispersed therein.
A route determining method, comprising: receiving a first flow entry , wherein the first flow entry comprises a first route mapping relationship of a service flow of a first service chain, a first load proportion of each service node, and a first effective time period of the first flow entry; receiving a second flow entry , wherein the second flow entry comprises a second route mapping relationship of the service flow of the first service chain, a second load proportion of each service node, and a second effective time period of the second flow entry, and the second effective time period is different from the first effective time period; receiving a first packet of a first service flow , wherein the first packet comprises a first timestamp of the first service flow and a first service chain identifier, the first service chain identifier indicates that the first service flow is a service flow of the first service chain, and the first timestamp indicates a creation time of the first service flow; determining, from the first effective time period and the second effective time period, a time period that includes the first timestamp ; determining, according to a flow entry corresponding to the determined time period, a service node for receiving the first packet ; and sending the first packet to the determined service node . receiving a first flow entry , wherein the first flow entry comprises a first route mapping relationship of a service flow of a first service chain, a first load proportion of each service node, and a first effective time period of the first flow entry; receiving a second flow entry , wherein the second flow entry comprises a second route mapping relationship of the service flow of the first service chain, a second load proportion of each service node, and a second effective time period of the second flow entry, and the second effective time period is different from the first effective time period; receiving a first packet of a first service flow , wherein the first packet comprises a first timestamp of the first service flow and a first service chain identifier, the first service chain identifier indicates that the first service flow is a service flow of the first service chain, and the first timestamp indicates a creation time of the first service flow; determining, from the first effective time period and the second effective time period, a time period that includes the first timestamp ; determining, according to a flow entry corresponding to the determined time period, a service node for receiving the first packet ; and sending the first packet to the determined service node .
A pharmaceutical composition comprising a first and a second peptide, wherein the first peptide is a peptide of the bacteriocin PLNC8 αβ, wherein the peptide of the bacteriocin PLNC8 αβ is SVPTSVYTLGIKIL WSA YKHRKTIEKSFNKGFYH SEQ ID NO 2, wherein the second peptide is DLTTKLWSSWGYYLGKKARWNL SEQ ID NO 31, and wherein the pharmaceutical composition further comprises at least one antibiotic. wherein the peptide of the bacteriocin PLNC8 αβ is SVPTSVYTLGIKIL WSA YKHRKTIEKSFNKGFYH SEQ ID NO 2, wherein the second peptide is DLTTKLWSSWGYYLGKKARWNL SEQ ID NO 31, and wherein the pharmaceutical composition further comprises at least one antibiotic.
A computerized method executable on a transaction server for processing a two-dimensional code transaction comprising: generating a two-dimensional code (306-1, 306-2) embedding a first part of a handle message , said two-dimensional code (306-1, 306-2) to be scanned by an imaging device of a user, said first part of the handle message including data of: a merchant ID, an acceptor ID, a location information, a transaction amount, a transaction ID, and a processing flag; receiving from a reader server a transaction message, said transaction message comprising data of a payment information as a second part of the handle message and the first part of the handle message ; decoding the transaction message to extract at least the data of the merchant ID, the location information, the transaction amount, and the transaction ID; transmitting the extracted data to an acquirer for verification; in response to receiving the verification from the acquirer, transmitting at least the payment information and the handle message to an issuer, wherein the issuer is identified in the payment information; and in response to receiving authentication from the issuer, completing the two-dimensional code transaction. generating a two-dimensional code (306-1, 306-2) embedding a first part of a handle message , said two-dimensional code (306-1, 306-2) to be scanned by an imaging device of a user, said first part of the handle message including data of: a merchant ID, an acceptor ID, a location information, a transaction amount, a transaction ID, and a processing flag; receiving from a reader server a transaction message, said transaction message comprising data of a payment information as a second part of the handle message and the first part of the handle message ; decoding the transaction message to extract at least the data of the merchant ID, the location information, the transaction amount, and the transaction ID; transmitting the extracted data to an acquirer for verification; in response to receiving the verification from the acquirer, transmitting at least the payment information and the handle message to an issuer, wherein the issuer is identified in the payment information; and in response to receiving authentication from the issuer, completing the two-dimensional code transaction.
An ocular surgical phacoemulsification, diathermy or vitrectomy apparatus comprising: an ocular surgical phacoemulsification, diathermy or vitrectomy instrument ; an instrument host for said ocular surgical phacoemulsification, diathermy or vitrectomy instrument , the instrument host being configured to receive ocular surgical data during phacoemulsification, diathermy or vitrectomy procedure, wherein the surgical data comprises instrument sensor data from the phacoemulsification, diathermy or vitrectomy instrument employed in the phacoemulsification, diathermy or vitrectomy procedure; a graphical user interface configured to receive the ocular surgical data and display the ocular surgical data to a user; and a processor; characterized in that the processor is configured to receive a number of ocular surgical data samples, deemphasize selected ocular surgical data samples thereby yielding a number of emphasized samples, and perform an operation on the number of emphasized samples to produce filtered ocular surgical data. an ocular surgical phacoemulsification, diathermy or vitrectomy instrument ; an instrument host for said ocular surgical phacoemulsification, diathermy or vitrectomy instrument , the instrument host being configured to receive ocular surgical data during phacoemulsification, diathermy or vitrectomy procedure, wherein the surgical data comprises instrument sensor data from the phacoemulsification, diathermy or vitrectomy instrument employed in the phacoemulsification, diathermy or vitrectomy procedure; a graphical user interface configured to receive the ocular surgical data and display the ocular surgical data to a user; and a processor; characterized in that the processor is configured to receive a number of ocular surgical data samples, deemphasize selected ocular surgical data samples thereby yielding a number of emphasized samples, and perform an operation on the number of emphasized samples to produce filtered ocular surgical data.
An image forming method comprising: forming a toner image on a print medium by using a toner including toner particles having a binder resin which contains a condensate of straight-chain diol having 2 to 6 carbon atoms, an alkylene oxide adduct of bisphenol A and polyvalent carboxylic acid; and applying, to the toner image, a fixing solution containing an ester-based softening agent having a boiling point of not less than 180°C so as to fix the toner image to the print medium. forming a toner image on a print medium by using a toner including toner particles having a binder resin which contains a condensate of straight-chain diol having 2 to 6 carbon atoms, an alkylene oxide adduct of bisphenol A and polyvalent carboxylic acid; and applying, to the toner image, a fixing solution containing an ester-based softening agent having a boiling point of not less than 180°C so as to fix the toner image to the print medium.
A method of providing an asymmetric key pair for protecting secret data for a device, the device being configured for executing applications using the secret data and being communicatively coupled to a first hardware module, the method comprising: generating the asymmetric key pair for the device; the asymmetric key pair comprising a device public key and a device private key; digitally signing the device public key at the device to generate a first certificate; sending the first certificate to the first hardware module; verifying the first certificate at the first hardware module, and responsive to the verification being successful, digitally signing the device public key at the first hardware module to generate a second certificate; sending the second certificate to the device; verifying the second certificate at the device; and responsive to the verification being successful, making available the first and second certificates for storage and/or further usage. generating the asymmetric key pair for the device; the asymmetric key pair comprising a device public key and a device private key; digitally signing the device public key at the device to generate a first certificate; sending the first certificate to the first hardware module; verifying the first certificate at the first hardware module, and responsive to the verification being successful, digitally signing the device public key at the first hardware module to generate a second certificate; sending the second certificate to the device; verifying the second certificate at the device; and responsive to the verification being successful, making available the first and second certificates for storage and/or further usage.
Device for connecting a valve drive with a valve membrane , the device comprising: an intermediate body with control sections which are arranged in a fixed manner within a passage opening of the intermediate body ; and an adapter arranged moveably, at least in sections, within the passage opening , with two adapter elements which are fixed so as to be rotatable in relation to the adapter around an axis of rotation (R) running perpendicular to an actuating axis (S), wherein, in a first position of the adapter on the actuating axis (S), connecting contours of the adapter elements facing the actuating axis (S) limit a common receiving space (A) to accommodate a fastening section of the valve membrane , and wherein, in a second position of the adapter on the actuating axis (S), a respective contact section of the adapter element makes contact with the assigned control section in such a way that the respective adapter element is rotated around the axis of rotation (R) into a mounting position in which the connecting contours limit a mounting space (M) which is larger than the receiving space (A), characterised in that at least one spring element pre-tensions the two adapter elements in such a way that, in the first position of the adapter along the actuating axis (S), connecting contours of the adapter elements facing the actuating axis (S) limit the common receiving space (A) to accommodate the fastening section of the valve membrane . an intermediate body with control sections which are arranged in a fixed manner within a passage opening of the intermediate body ; and an adapter arranged moveably, at least in sections, within the passage opening , with two adapter elements which are fixed so as to be rotatable in relation to the adapter around an axis of rotation (R) running perpendicular to an actuating axis (S), wherein, in a first position of the adapter on the actuating axis (S), connecting contours of the adapter elements facing the actuating axis (S) limit a common receiving space (A) to accommodate a fastening section of the valve membrane , and wherein, in a second position of the adapter on the actuating axis (S), a respective contact section of the adapter element makes contact with the assigned control section in such a way that the respective adapter element is rotated around the axis of rotation (R) into a mounting position in which the connecting contours limit a mounting space (M) which is larger than the receiving space (A), characterised in that at least one spring element pre-tensions the two adapter elements in such a way that, in the first position of the adapter along the actuating axis (S), connecting contours of the adapter elements facing the actuating axis (S) limit the common receiving space (A) to accommodate the fastening section of the valve membrane .