mhurhangee/ep-ind-claims huggingface dataset:
A method of hydrolyzing a biomass material comprising incubating the biomass saccharification mixture under conditions suitable for hydrolyzing the biomass materials in the biomass saccharification mixture and for a sufficient period of time, wherein the biomass saccharification mixture comprises: a. a biomass material; b. an enzyme composition comprising at least one polypeptide having GH61/endoglucanase activity which has at least 90% in amino acid sequence identity to residues 22-344 of SEQ ID NO:27 ( T. reesei Eg4), at least one polypeptide having beta-glucosidase activity which has at least 90% amino acid sequence identity to residues 20-744 of SEQ ID NO: 102 ( T. reesei Tr3A); at least one polypeptide having beta-xylosidase activity which has at least 90% amino acid sequence identity to residues 16-347 of SEQ ID NO: 36 (Fv3A) and/or the polypeptide having beta-xylosidase activity has at least 90% amino acid sequence identity to residues 21-350 of SEQ ID NO: 62 (Fv43D); at least one polypeptide having xylanase activity which has at least 90% amino acid sequence identity to residues 16-347 of SEQ ID NO: 76; and at least one polypeptide having alpha-arabinofuranosidase activity which has at least 90% amino acid sequence identity to residues 20-660 of SEQ ID NO: 66 (Fv51A); wherein the polypeptide having GH61/endoglucanase activity is present in whole cellulase in an amount of at least 5 wt% and no more than 50 wt% based on the total weight of protein in the whole cellulase; wherein the method provides a biomass saccharification mixture having a lower viscosity than a biomass saccharification mixture without the polypeptide having GH61/endoglucanase activity and/or is capable of increasing the level of saccharification in the mixture as compared to the level of saccharification in a mixture having no or a lower level of the polypeptide having GH61/endoglucanase activity. a. a biomass material; b. an enzyme composition comprising at least one polypeptide having GH61/endoglucanase activity which has at least 90% in amino acid sequence identity to residues 22-344 of SEQ ID NO:27 ( T. reesei Eg4), at least one polypeptide having beta-glucosidase activity which has at least 90% amino acid sequence identity to residues 20-744 of SEQ ID NO: 102 ( T. reesei Tr3A); at least one polypeptide having beta-xylosidase activity which has at least 90% amino acid sequence identity to residues 16-347 of SEQ ID NO: 36 (Fv3A) and/or the polypeptide having beta-xylosidase activity has at least 90% amino acid sequence identity to residues 21-350 of SEQ ID NO: 62 (Fv43D); at least one polypeptide having xylanase activity which has at least 90% amino acid sequence identity to residues 16-347 of SEQ ID NO: 76; and at least one polypeptide having alpha-arabinofuranosidase activity which has at least 90% amino acid sequence identity to residues 20-660 of SEQ ID NO: 66 (Fv51A);
A glass-ceramic of the lithium aluminosilicate type comprising a solid solution of β-spodumene representing at least 20% by weight of the total crystalline fraction, and exhibiting, for a thickness of 4 mm; - a light transmittance within a range extending from 0.3 to 2%, in particular from 0.6 to 1.7%, - an optical transmittance for a wavelength of 625 nm of greater than 2.0%, in particular of greater than 3.0%, - an optical transmittance for a wavelength of 950 nm within a range extending from 50 to 75%, - an optical transmittance for a wavelength of 1600 nm of at least 50%, and - L*, a*, b* colorimetric coordinates in diffuse reflection for an illuminant D65 and a reference observer at 2° such that 15.0 ≤ L* ≤ 40.0, -3.0 ≤ a* ≤ 3.0 and -10.0 ≤ b* ≤ 3.0, said glass-ceramic being such that its chemical composition comprises the following constituents, varying within the limits by weight defined below: SnO 2 0.2-0.6%, in particular 0.25-0.5% V 2 O 5 0.015-0.070%, in particular 0.015-0.050% Cr 2 O 3 0.01-0.04% or Bi 2 O 3 0.05-3.0% Fe 2 O 3 0.05- <0.15% As 2 O 3 +Sb 2 O 3 <0.1%, in particular <0.05%. - a light transmittance within a range extending from 0.3 to 2%, in particular from 0.6 to 1.7%, - an optical transmittance for a wavelength of 625 nm of greater than 2.0%, in particular of greater than 3.0%, - an optical transmittance for a wavelength of 950 nm within a range extending from 50 to 75%, - an optical transmittance for a wavelength of 1600 nm of at least 50%, and - L*, a*, b* colorimetric coordinates in diffuse reflection for an illuminant D65 and a reference observer at 2° such that 15.0 ≤ L* ≤ 40.0, -3.0 ≤ a* ≤ 3.0 and -10.0 ≤ b* ≤ 3.0,
An artificial urinary sphincter system comprising: a cuff; a pump; and a conduit attachable between the cuff and the pump; wherein the cuff is integrated to comprise a first compartment and a storage compartment, the first compartment configured to contact the urethra and the storage compartment communicating with the first compartment; wherein the pump is operable to move the liquid between the first compartment and the storage compartment and the cuff is a pressurizable reservoir that is sized to be placed around a urethra of a user and configured to coapt the urethra in treating urinary incontinence, characterized in that the cuff includes a first end portion that provides a tab and a second end portion that is formed to include a slot such that insertion of the tab in the slot forms the cuff in a substantially circular shape suited for placement around the urethra. a cuff; a pump; and a conduit attachable between the cuff and the pump; wherein the cuff is integrated to comprise a first compartment and a storage compartment, the first compartment configured to contact the urethra and the storage compartment communicating with the first compartment; wherein the pump is operable to move the liquid between the first compartment and the storage compartment and the cuff is a pressurizable reservoir that is sized to be placed around a urethra of a user and configured to coapt the urethra in treating urinary incontinence, characterized in that the cuff includes a first end portion that provides a tab and a second end portion that is formed to include a slot such that insertion of the tab in the slot forms the cuff in a substantially circular shape suited for placement around the urethra.
An augmentor spray bar for use in a gas turbine engine, comprising: a shaft (254; 520); a tuned mass damper (258;500) for increasing or decreasing vibration on the shaft (254;520), the tuned mass damper (258; 500) comprising: a shaft connector member (300;502) coupled to the shaft (254;520); a cable termination member (302;508); and at least one cable (304,305,306;514) coupled to the shaft connector member (300;502) and to the cable termination member (302;508) such that vibration of the shaft (254;520) is transferred to the at least one cable (304...514) via the shaft connector member (300;502) and increased or decreased by the at least one cable (304...514). a shaft (254; 520); a tuned mass damper (258;500) for increasing or decreasing vibration on the shaft (254;520), the tuned mass damper (258; 500) comprising: a shaft connector member (300;502) coupled to the shaft (254;520); a cable termination member (302;508); and at least one cable (304,305,306;514) coupled to the shaft connector member (300;502) and to the cable termination member (302;508) such that vibration of the shaft (254;520) is transferred to the at least one cable (304...514) via the shaft connector member (300;502) and increased or decreased by the at least one cable (304...514). a shaft connector member (300;502) coupled to the shaft (254;520); a cable termination member (302;508); and at least one cable (304,305,306;514) coupled to the shaft connector member (300;502) and to the cable termination member (302;508) such that vibration of the shaft (254;520) is transferred to the at least one cable (304...514) via the shaft connector member (300;502) and increased or decreased by the at least one cable (304...514).
A filtration vessel, comprising: an outer housing defining a filtration chamber, the housing having an inlet port and an outlet port; a partition plate in the housing dividing the filtration chamber into an inlet chamber communicating with the inlet port and an outlet chamber communicating with the outlet port, the partition plate having a first face facing to the inlet chamber; a hole defined in the partition plate; a perforated sleeve (170, 270) mounted in the hole in the partition plate, the sleeve (170, 270) having a solid ring portion lining the hole to provide a radial seal surface, the sleeve (170, 270) comprising a flange (176, 276) attached to the first face of the partition plate; a filter element removably installed into the sleeve (170, 270), the filter element having a seal sealing radially against the radial seal surface; characterized in that the seal is a chevron seal which has an annular base portion wedged into a groove on an open end cap of the filter element positively engaging all three sides of the groove, and an annular sealing flange, the annular sealing flange extending at a canted angle (α) from the annular base portion defining a pocket therebetween, the pocket being arranged such that it opens towards the inlet chamber, a diameter of an inner peripheral surface of the solid ring portion being smaller than the outer diameter of the chevron seal and larger than a diameter of the outer peripheral surface of the end cap of the filter element so that the chevron seal is in a radially compressed state when received within the perforated sleeve (170, 270). an outer housing defining a filtration chamber, the housing having an inlet port and an outlet port; a partition plate in the housing dividing the filtration chamber into an inlet chamber communicating with the inlet port and an outlet chamber communicating with the outlet port, the partition plate having a first face facing to the inlet chamber; a hole defined in the partition plate; a perforated sleeve (170, 270) mounted in the hole in the partition plate, the sleeve (170, 270) having a solid ring portion lining the hole to provide a radial seal surface, the sleeve (170, 270) comprising a flange (176, 276) attached to the first face of the partition plate; a filter element removably installed into the sleeve (170, 270), the filter element having a seal sealing radially against the radial seal surface; characterized in that the seal is a chevron seal which has an annular base portion wedged into a groove on an open end cap of the filter element positively engaging all three sides of the groove, and an annular sealing flange, the annular sealing flange extending at a canted angle (α) from the annular base portion defining a pocket therebetween, the pocket being arranged such that it opens towards the inlet chamber, a diameter of an inner peripheral surface of the solid ring portion being smaller than the outer diameter of the chevron seal and larger than a diameter of the outer peripheral surface of the end cap of the filter element so that the chevron seal is in a radially compressed state when received within the perforated sleeve (170, 270).
A method for using a secure wireless protocol within a wireless battery management system, the method comprising: determining based on a freshness value counter, by a first wireless component of the BMS, a first freshness value; generating, by the first wireless component, a message body comprising the first freshness value and a data payload; using, by the first wireless component, a first session key shared with a second wireless component of the BMS, to encrypt the message body; generating, by the first wireless component, a message authentication code based on the encrypted message body and the first session key; transmitting to the second wireless component, by the first wireless component, a message that includes the encrypted message body and a message authentication tag; receiving from the second wireless component, by the first wireless component, another message that includes a second-wireless-component encrypted message body and a second-wireless-component message authentication tag; using, by the first wireless component, the first session key to authenticate the second-wireless-component encrypted message body and decrypt the second-wireless-component encrypted message body to generate a message body that includes a second freshness value; determining based on a freshness value counter at the second wireless component, by the first wireless component of the BMS, a third freshness value; and determining, by the first wireless component, whether data in the first message is fresh by determining whether the second freshness value matches the third freshness value. determining based on a freshness value counter, by a first wireless component of the BMS, a first freshness value; generating, by the first wireless component, a message body comprising the first freshness value and a data payload; using, by the first wireless component, a first session key shared with a second wireless component of the BMS, to encrypt the message body; generating, by the first wireless component, a message authentication code based on the encrypted message body and the first session key; transmitting to the second wireless component, by the first wireless component, a message that includes the encrypted message body and a message authentication tag; receiving from the second wireless component, by the first wireless component, another message that includes a second-wireless-component encrypted message body and a second-wireless-component message authentication tag; using, by the first wireless component, the first session key to authenticate the second-wireless-component encrypted message body and decrypt the second-wireless-component encrypted message body to generate a message body that includes a second freshness value; determining based on a freshness value counter at the second wireless component, by the first wireless component of the BMS, a third freshness value; and determining, by the first wireless component, whether data in the first message is fresh by determining whether the second freshness value matches the third freshness value.
A method performed in a network computing environment having a client and server, the method comprising: granting the client at least one credit, each credit corresponding to a unique sequence number that the client can use for sending a command to the server, the set of one or more unique sequence numbers forming a valid command window; and enforcing that for each received command, the command includes a unique sequence number that is within the valid command window and that the unique sequence number has not been used before with another command; wherein once a sequence number is used, the client is not allowed to reuse said sequence number. granting the client at least one credit, each credit corresponding to a unique sequence number that the client can use for sending a command to the server, the set of one or more unique sequence numbers forming a valid command window; and enforcing that for each received command, the command includes a unique sequence number that is within the valid command window and that the unique sequence number has not been used before with another command; wherein
Method for in-situ sampling of a reservoir fluid from a hydrocarbon reservoir comprising: obtaining a number of local samples of the reservoir fluid from different zones of the hydrocarbon reservoir, wherein each of the number of local samples is contained in a carrying agent, wherein the carrying agent is generated in-situ by a reservoir fluid sampling unit arranged in the hydrocarbon reservoir, and the carrying agent further comprising a tracer unique for a zone of the hydrocarbon reservoir.
Method for transmitting a request to an actuator in a vehicle by means of a message of a data transmission to an actuator control unit of the actuator, wherein the message contains the request and additionally contains a reference to a previous request, characterized in that the reference is a change state determined from a difference of a value of the request and a previous value of the previous request.
A fluid nozzle, comprising: a sheath; a nozzle base; a nozzle tip; a fluid tube configured to be contained within the sheath and supported at the nozzle base and the nozzle tip; and at least one spacer for said fluid nozzle, said spacer disposed within the sheath such the fluid tube is held bent over its longitudinal dimension thereby altering a natural frequency of the fluid tube compared to if the fluid tube were not held bent, said spacer comprising: a body configured to fit within said sheath of the fluid nozzle such that said fluid tube positioned within the sheath is held bent over its longitudinal dimension by the body thereby altering a natural frequency of the fluid tube compared to if the fluid tube were not held bent, and further comprising an off-center hole defined through the body at least in an orthogonal direction to a plane that is coplanar with the body, wherein the off-center hole is configured to receive the fluid tube within the sheath of the fluid nozzle to bend the fluid tube within the sheath. a sheath; a nozzle base; a nozzle tip; a fluid tube configured to be contained within the sheath and supported at the nozzle base and the nozzle tip; and at least one spacer for said fluid nozzle, said spacer disposed within the sheath such the fluid tube is held bent over its longitudinal dimension thereby altering a natural frequency of the fluid tube compared to if the fluid tube were not held bent, said spacer comprising: a body configured to fit within said sheath of the fluid nozzle such that said fluid tube positioned within the sheath is held bent over its longitudinal dimension by the body thereby altering a natural frequency of the fluid tube compared to if the fluid tube were not held bent, and further comprising an off-center hole defined through the body at least in an orthogonal direction to a plane that is coplanar with the body, wherein the off-center hole is configured to receive the fluid tube within the sheath of the fluid nozzle to bend the fluid tube within the sheath.
A capacitive type proximity sensor comprising a sensing electrode, the sensor being adapted for measuring an electrical field between the sensing electrode and an object (111, 109); wherein the sensing electrode has a skeletal structure which provides a more balanced sensitivity over the entire sensor by providing the sensing electrode with electroconductive areas and non-electroconductive areas, the non-electroconductive areas being located at those areas of the sensing electrode where the sensitivity of the sensing electrode should be decreased.
Electric machine with a stator and a rotor, wherein the machine has at least two sub-machines (3, 4) each having the same number of phases, wherein the sub-machines each comprise a portion of stator coils (5, 6, 7, 8, 9, 10) of the stator and are designed to generate, independently of each other, a rotating magnetic field to rotate the rotor, wherein the machine has a power output stage (13, 14) for each sub-machine (3, 4), and the machine has at least one control unit, which is connected to the power output stages (13, 14), and which is designed to generate a PWM signal (53, 54) to actuate the power output stages (13, 14), characterized in that the control unit is designed to generate the PWM signal (53, 54) for the sub-machines (3, 4) such that the PWM pulses for a sub-machine each start at a start time of a PWM period. the machine has a power output stage (13, 14) for each sub-machine (3, 4), and the machine has at least one control unit, which is connected to the power output stages (13, 14), and which is designed to generate a PWM signal (53, 54) to actuate the power output stages (13, 14), characterized in that the control unit is designed to generate the PWM signal (53, 54) for the sub-machines (3, 4) such that the PWM pulses for a sub-machine each start at a start time of a PWM period.
A polypropylene composition comprising: A) From 90.6 wt% to 97.0 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25°C greater than 90 wt%; and a melt flow rate, MFR, measured according to ISO 1133-1 at 230 °C with a load of 2.16 kg comprised between 40.0 g/10 min and 100.0 g/10 min; B) From 3.0 wt% to 9.4 wt%; of a propylene ethylene copolymer having an ethylene derived units content ranging from 22 wt% to 38 wt%, measured by 13 C NMR; said polypropylene composition having: i) xylene soluble fraction at 25°C ranging from 5.0 wt% to 13.0 wt%; ii) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 0.3 wt% to 1.6 wt% measured by 13 C NMR;; iii) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from 17.2 wt% to 27.0 wt%, measured by 13 C NMR; (iv) melt flow rate, MFR, measured according to ISO 1133-1 at 230 °C with a load of 2.16 kg, comprised between 35.0 g/10 min and 70.0 g/10 min; the sum of the amounts of A) and B) being 100 wt%. A) From 90.6 wt% to 97.0 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25°C greater than 90 wt%; and a melt flow rate, MFR, measured according to ISO 1133-1 at 230 °C with a load of 2.16 kg comprised between 40.0 g/10 min and 100.0 g/10 min; B) From 3.0 wt% to 9.4 wt%; of a propylene ethylene copolymer having an ethylene derived units content ranging from 22 wt% to 38 wt%, measured by 13 C NMR; said polypropylene composition having: i) xylene soluble fraction at 25°C ranging from 5.0 wt% to 13.0 wt%; ii) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 0.3 wt% to 1.6 wt% measured by 13 C NMR;; iii) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from 17.2 wt% to 27.0 wt%, measured by 13 C NMR; (iv) melt flow rate, MFR, measured according to ISO 1133-1 at 230 °C with a load of 2.16 kg, comprised between 35.0 g/10 min and 70.0 g/10 min; the sum of the amounts of A) and B) being 100 wt%. said polypropylene composition having: i) xylene soluble fraction at 25°C ranging from 5.0 wt% to 13.0 wt%; ii) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 0.3 wt% to 1.6 wt% measured by 13 C NMR;; iii) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from 17.2 wt% to 27.0 wt%, measured by 13 C NMR; (iv) melt flow rate, MFR, measured according to ISO 1133-1 at 230 °C with a load of 2.16 kg, comprised between 35.0 g/10 min and 70.0 g/10 min; i) xylene soluble fraction at 25°C ranging from 5.0 wt% to 13.0 wt%; ii) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 0.3 wt% to 1.6 wt% measured by 13 C NMR;; iii) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from 17.2 wt% to 27.0 wt%, measured by 13 C NMR; (iv) melt flow rate, MFR, measured according to ISO 1133-1 at 230 °C with a load of 2.16 kg, comprised between 35.0 g/10 min and 70.0 g/10 min; the sum of the amounts of A) and B) being 100 wt%.
Polyetherpolyol obtained by co-polymerization of a compound A containing at least one epoxide moiety and a compound B capable of undergoing a ring opening reaction wherein compound A and compound B are different from each other and wherein the co-polymerization is carried out in the presence of a Bronsted acid with a weakly coordinating and non-nucleophilic anion, wherein compound B is selected from five-membered heterocyclic rings and six-membered heterocyclic rings and in that compound A has a molecular weight of 40 to 200 g/mol, characterized in that the difference between the number average molecular weight M n of the polyetherpolyol as determined by GPC and the number average molecular weight M n of the polyetherpolyol as determined by end group titration is less than 50%, based in the number average molecular weight Mn of the polyetherpolyol as determined by GPC.