mhurhangee/ep-ind-claims huggingface dataset:
A polyoxyalkylene-containing organosilicon compound having the structural formula: wherein R 1 is each independently a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, R 2 is each independently a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, m is a number of 1 to 3, n is an integer of at least 2, and Z is a polyoxyalkylene structure having the formula: wherein R 4 is a C 1 -C 14 divalent hydrocarbon group, p is a number of at least 1, and the broken line represents a valence bond.
A method for configuring a heating, ventilation, and air conditioning system, the system including at least one HVAC unit (204, 204', 302, 302', 306, 400), each unit including a control circuit, a fan and a cooling valve, the method comprising: receiving a return air temperature signal at the control circuit of the at least one HVAC unit; and receiving a supply air temperature signal at the control circuit of the at least one HVAC unit; the method further comprises: controlling the fan and the cooling valve of the at least one HVAC unit based on the received return air temperature signal and the received supply air temperature signal, characterized in that controlling the fan and the cooling valve includes: comparing the received return air temperature signal with the received supply air temperature signal; controlling the cooling valve based on the step of comparing the received return air temperature and the received supply air temperature; and controlling the fan to increase a speed of the fan based on the cooling valve operating at a maximum capacity. receiving a return air temperature signal at the control circuit of the at least one HVAC unit; and receiving a supply air temperature signal at the control circuit of the at least one HVAC unit; the method further comprises: controlling the fan and the cooling valve of the at least one HVAC unit based on the received return air temperature signal and the received supply air temperature signal, characterized in that controlling the fan and the cooling valve includes: comparing the received return air temperature signal with the received supply air temperature signal; controlling the cooling valve based on the step of comparing the received return air temperature and the received supply air temperature; and controlling the fan to increase a speed of the fan based on the cooling valve operating at a maximum capacity. controlling the fan and the cooling valve of the at least one HVAC unit based on the received return air temperature signal and the received supply air temperature signal, characterized in that controlling the fan and the cooling valve includes: comparing the received return air temperature signal with the received supply air temperature signal; controlling the cooling valve based on the step of comparing the received return air temperature and the received supply air temperature; and controlling the fan to increase a speed of the fan based on the cooling valve operating at a maximum capacity. comparing the received return air temperature signal with the received supply air temperature signal; controlling the cooling valve based on the step of comparing the received return air temperature and the received supply air temperature; and controlling the fan to increase a speed of the fan based on the cooling valve operating at a maximum capacity.
Biomedical device for carrying out an arterial catheterization comprising a catheter assembly, a Seldinger assembly, an outer sheath assembly configured to contain thereinside both said catheter assembly and said Seldinger assembly when the device is assembled before its use, at least a cannula-needle integral to the Seldinger assembly, valve means to avoid blood backflow and safety means for needle clamping, protection means for the needle, said catheter assembly comprising a thin tube, a nearly cylindrically shaped end provided with a couple of side wings, an inner cavity obtained in said end, said device being characterized in that said valve means and said safety means are located inside said outer sheath assembly in the inner cavity obtained in said cylindrical end of the catheter assembly.
A Heusler alloy in which a portion of elements of an alloy is represented by the general expression (Co 1-a X1 a) 2 (Fe 1-b Y1 b) α Z β, characterized in that, Z is one or more elements selected from the group consisting of Mn, Cr, Al, Si, Ga, Ge, and Sn, α and β satisfy 2.3 ≤ α+β, α < β, and 0.5 < α <1.9, and wherein X1 is a substitution element, which is different from the Z element and has a smaller magnetic moment than Co, Y1 is one or more second substitution elements selected from the group consisting of elements having a smaller magnetic moment than Fe, and 0 < a < 0.5 and b ≥ 0 are satisfied. Z is one or more elements selected from the group consisting of Mn, Cr, Al, Si, Ga, Ge, and Sn, α and β satisfy 2.3 ≤ α+β, α < β, and 0.5 < α <1.9, and wherein X1 is a substitution element, which is different from the Z element and has a smaller magnetic moment than Co, Y1 is one or more second substitution elements selected from the group consisting of elements having a smaller magnetic moment than Fe, and 0 < a < 0.5 and b ≥ 0 are satisfied.
A composition comprising microcapsules, wherein said microcapsules comprise a core and an outer shell, wherein said core comprises a water-insoluble biocide that is 4,5-dichloro-2-n-octyl-4-isothiazolin-3-one, and wherein said outer shell comprises one or more amino resin that is a reaction product of reactants comprising (a) one or more monomer polyamine, (b) one or more aldehyde, and (c) one or more compound (c) selected from the group consisting of additive diamines, additive diols, additive amino-alcohols, and mixtures thereof. wherein said microcapsules comprise a core and an outer shell, wherein said core comprises a water-insoluble biocide that is 4,5-dichloro-2-n-octyl-4-isothiazolin-3-one, and wherein said outer shell comprises one or more amino resin that is a reaction product of reactants comprising (a) one or more monomer polyamine, (b) one or more aldehyde, and (c) one or more compound (c) selected from the group consisting of additive diamines, additive diols, additive amino-alcohols, and mixtures thereof. (a) one or more monomer polyamine, (b) one or more aldehyde, and (c) one or more compound (c) selected from the group consisting of additive diamines, additive diols, additive amino-alcohols, and mixtures thereof.
Support element for sliding on and holding at least one intestine portion, the support element extending along a longitudinal axis and comprising a first and a second free end region (12, 14) and two sides (16, 18) that extend substantially in parallel with one another, at least one free end region (12, 14) of the support element comprising a folding portion (30, 32) that can be folded about a first fold edge in order to prevent an intestine portion that has been slid onto the support element from slipping off said support element, characterized in that the support element is tubular, in that at least one free end region (12, 14) is slit so as to form two tongue-like edge portions (22, 24, 26, 28) that each comprise a folding portion (30, 32), and in that both tongue-like edge portions (22, 24, 26, 28) of a folding portion (30, 32) comprise a fold edge (34, 36) that extends obliquely or transversely to the longitudinal axis along one of the two planar sides (16, 18).
An impact tool, which performs a hammering operation on a workpiece by at least linear movement of a tool bit in an axial direction of the tool bit, comprising: a driving mechanism (120, 140) that is adapted to drive the tool bit, an electric motor that is adapted to drive the driving mechanism (120, 140), a housing that forms an outer shell of the impact tool, wherein the housing has a first housing and a second housing, the first housing has a first contact region for contact with the second housing, the second housing has a second contact region for contact with the first housing, wherein the first contact region and the second contact region are relatively slidable to each other, characterised in that the first contact region and the second contact region are formed of different materials to each other. a driving mechanism (120, 140) that is adapted to drive the tool bit, an electric motor that is adapted to drive the driving mechanism (120, 140), a housing that forms an outer shell of the impact tool, wherein the housing has a first housing and a second housing, the first housing has a first contact region for contact with the second housing, the second housing has a second contact region for contact with the first housing, wherein the first contact region and the second contact region are relatively slidable to each other, characterised in that the first contact region and the second contact region are formed of different materials to each other.
A toy vehicle configured for running on rails, the toy vehicle comprises a chassis comprising a first end and a second end, two side faces (5,6) extending in the longitudinal direction of the toy vehicle and a top portion, the toy vehicle comprising at least two axles, said at least two axles comprising a wheel, and where the chassis comprises oblong recesses positioned on the inner surface of the chassis, the oblong recesses adapted to obtain a protrusion of a wheel or an end portion of the at least two axles, the chassis comprising two or more axle support arms adapted to support the at least two axles, characterized in, that the two or more axle support arms are adapted to provide a void allowing movement of the two or more axles within that void of the axle support arms, so that the wheels are slidable within the oblong recesses but to avoid disengagement between an oblong recess and the protrusion of a wheel or an end portion of the at least two axles, respectively, and so that the axle support arms only add friction to the axles when it is necessary to keep the wheels in place and to avoid detachment.
Method for manufacturing a closed glass container comprising at least one solid body and a fluid, comprising the steps of: - providing a tube tapering towards a first end, having an inside diameter at the tapered first end which is less than an inside diameter at an opposite second end; - connecting the tube at the tapered first end to a first end of a straight rod tube; - inserting a solid body into the tapered tube from the second end of the tapered tube, wherein an average diameter of the solid body is above an inner diameter of the rod tube; - sealing the tapered tube at the second end having the larger inside diameter; - filling the vial thereby obtained with a fluid; - sealing the vial at the second end of the rod tube. - providing a tube tapering towards a first end, having an inside diameter at the tapered first end which is less than an inside diameter at an opposite second end; - connecting the tube at the tapered first end to a first end of a straight rod tube; - inserting a solid body into the tapered tube from the second end of the tapered tube, wherein an average diameter of the solid body is above an inner diameter of the rod tube; - sealing the tapered tube at the second end having the larger inside diameter; - filling the vial thereby obtained with a fluid; - sealing the vial at the second end of the rod tube.
A method of manufacturing a three-dimensional article comprising: loading a metal platen into a build chamber, the metal platen defining an upper surface; performing concurrent processes for calibration including: operating a movement mechanism to vertically translate the platen; operating a laser system to impinge a radiation beam upon the upper surface of the platen; and receiving a signal from an acoustic sensor that is positioned within the build chamber; analyzing the signal including determining a height of maximum laser convergence for the platen; and based upon the analysis, adjusting the maximum laser convergence height to a build plane height. loading a metal platen into a build chamber, the metal platen defining an upper surface; performing concurrent processes for calibration including: operating a movement mechanism to vertically translate the platen; operating a laser system to impinge a radiation beam upon the upper surface of the platen; and receiving a signal from an acoustic sensor that is positioned within the build chamber; operating a movement mechanism to vertically translate the platen; operating a laser system to impinge a radiation beam upon the upper surface of the platen; and receiving a signal from an acoustic sensor that is positioned within the build chamber; analyzing the signal including determining a height of maximum laser convergence for the platen; and based upon the analysis, adjusting the maximum laser convergence height to a build plane height.
An αvβ6 integrin ligand comprising: RG 1 DLXaa 1 Xaa 2 L-Xaa 3 Xaa 4 L-R 1 (SEQ ID NO: 96) (Formula VIII) wherein R is L-arginine; G 1 is L-glycine or N-methyl glycine; D is L-aspartic acid (L-aspartate); L is L-leucine; Xaa 1 is L-alanine; Xaa 2 is L-α-aminobutyric acid (Abu); Xaa 3 is citrulline (Cit); Xaa 4 is aminoisobutyric acid (Aib); and R 1 is optional and, if present, includes PEG and/or a linking group. R is L-arginine; G 1 is L-glycine or N-methyl glycine; D is L-aspartic acid (L-aspartate); L is L-leucine; Xaa 1 is L-alanine; Xaa 2 is L-α-aminobutyric acid (Abu); Xaa 3 is citrulline (Cit); Xaa 4 is aminoisobutyric acid (Aib); and R 1 is optional and, if present, includes PEG and/or a linking group.
A method of handling network traffic in a communication device, comprising: - receiving incoming downlink data packets via a fixed access in the communication device, the downlink data packets including a first identifier and being assigned to a traffic class; - detecting outgoing uplink data packets to be transmitted via the fixed access from the communication device, said outgoing uplink data packets including a second identifier which is complementary with respect to said first identifier, characterized by said first identifier including a source address and said complementary second identifier including a destination address which is the same as the source address of said first identifier; the method comprising: - assigning the detected outgoing uplink data packets having said complementary second identifier to the same traffic class as the incoming downlink data packets having said first identifier. - receiving incoming downlink data packets via a fixed access in the communication device, the downlink data packets including a first identifier and being assigned to a traffic class; - detecting outgoing uplink data packets to be transmitted via the fixed access from the communication device, said outgoing uplink data packets including a second identifier which is complementary with respect to said first identifier, - assigning the detected outgoing uplink data packets having said complementary second identifier to the same traffic class as the incoming downlink data packets having said first identifier.
A method for the reduction of undesirable emissions in a gas turbine combustion system, said method comprising delivering and mixing chemically inactive diluent and fuel, and introducing the mixture into a flame zone for combustion, comprising: dynamically controlling the flow of diluent to be homogenously mixed with said fuel while maintaining a diluent-to-fuel ratio of said homogenized mixture above 3.0:1 to produce reduced emissions of CO, NO x and CO 2 as compared to combustion of a homogeneous mixture of diluent and fuel at diluent-to-fuel ratio below 3.0:1, using a computer-implemented dynamic controller (300, 704); said controlling comprising: dynamically measuring the temperature, pressure and flow rate of at least one of said diluent (102, 103, 104) and said fuel and using said measurements in said controlling of the flow of said diluent, during a start up procedure of said turbine system, responding to withholding diluent from the system until the system has reached a stable condition with load, and then gradually increasing the flow of diluent until a desired diluent-to-fuel ration is attained; during a shutdown procedure of the turbine system, gradually decreasing the flow of diluent mixing with said fuel until no diluent remains in said combustion system, followed by a full shutdown of the combustion system. dynamically controlling the flow of diluent to be homogenously mixed with said fuel while maintaining a diluent-to-fuel ratio of said homogenized mixture above 3.0:1 to produce reduced emissions of CO, NO x and CO 2 as compared to combustion of a homogeneous mixture of diluent and fuel at diluent-to-fuel ratio below 3.0:1, using a computer-implemented dynamic controller (300, 704); said controlling comprising: dynamically measuring the temperature, pressure and flow rate of at least one of said diluent (102, 103, 104) and said fuel and using said measurements in said controlling of the flow of said diluent, during a start up procedure of said turbine system, responding to withholding diluent from the system until the system has reached a stable condition with load, and then gradually increasing the flow of diluent until a desired diluent-to-fuel ration is attained; during a shutdown procedure of the turbine system, gradually decreasing the flow of diluent mixing with said fuel until no diluent remains in said combustion system, followed by a full shutdown of the combustion system. dynamically measuring the temperature, pressure and flow rate of at least one of said diluent (102, 103, 104) and said fuel and using said measurements in said controlling of the flow of said diluent, during a start up procedure of said turbine system, responding to withholding diluent from the system until the system has reached a stable condition with load, and then gradually increasing the flow of diluent until a desired diluent-to-fuel ration is attained; during a shutdown procedure of the turbine system, gradually decreasing the flow of diluent mixing with said fuel until no diluent remains in said combustion system, followed by a full shutdown of the combustion system.
A cleaning device for cleaning a spinning preparation machine, comprising a suction pipe, by which dust, fibres or dirt are sucked via a pressure booster, and by means of a suction hose the dust, the fibres or the dirt are directly or indirectly transportable into a suction channel (27, 57, 66) of the spinning preparation machine, characterized in that a pressure chamber is disposed between the pressure booster and the suction hose, wherein the pressure booster is separated at least partially from the pressure chamber by a separation wall.
A silica based glass optical fiber comprising: a core including a center axis of the optical fiber; an optical cladding surrounding the core; and a jacket surrounding the optical cladding, wherein the core contains GeO 2, a relative refractive index difference Δcore of the core is greater than or equal to 0.35% and less than or equal to 0.50%, and a refractive index volume v = 2 ∫ 0 a Δ r ⋅ r ⋅ dr of the core is greater than or equal to 0.045 μm 2 and less than or equal to 0.095 μm 2, where Δ(r) denotes the relative refractive index difference at a radial coordinate r and a denotes the radius of the core, the jacket has a relative refractive index difference ΔJ greater than or equal to 0.03% and less than or equal to 0.20%, glass constituting the core has a fictive temperature higher than or equal to 1400°C and lower than or equal to 1590°C, and residual stress in the core is compressive stress that has an absolute value greater than or equal to 5 MPa, wherein the relative refractive index difference of the core or of the jacket, having refractive index n, is given by (n-n cladding)/n cladding, wherein n cladding is the refractive index of the optical cladding. a core including a center axis of the optical fiber; an optical cladding surrounding the core; and a jacket surrounding the optical cladding, wherein the core contains GeO 2, a relative refractive index difference Δcore of the core is greater than or equal to 0.35% and less than or equal to 0.50%, and a refractive index volume v = 2 ∫ 0 a Δ r ⋅ r ⋅ dr of the core is greater than or equal to 0.045 μm 2 and less than or equal to 0.095 μm 2, where Δ(r) denotes the relative refractive index difference at a radial coordinate r and a denotes the radius of the core, the jacket has a relative refractive index difference ΔJ greater than or equal to 0.03% and less than or equal to 0.20%, glass constituting the core has a fictive temperature higher than or equal to 1400°C and lower than or equal to 1590°C, and residual stress in the core is compressive stress that has an absolute value greater than or equal to 5 MPa,
A body lumen graft base having at least one surface of a woven fabric comprising a fiber having a total fineness of 1 to 80 decitex and a single fiber fineness of less than 0.1 decitex subjected to press treatment, wherein the yarn density of at least one of warp and weft of the fiber is less than 150 strands/2.54 cm (150 strands/inch), and wherein the press treatment is press treatment by a calender machine.
A hearing aid comprising: a battery; a control means which controls a function of the hearing aid, including a wireless communication function; a power supply switch which switches between supply and block of power from the battery to the control means; and a magnetic switch connected to the control means, wherein: the control means are configured to proceed to a normal operation via a start-up process when power is supplied from the battery due to the power supply switch; if the magnetic switch is on during the start-up process, the control means switches a wireless communication setting before proceeding to the normal operation; and if the magnetic switch is off until the end of the start-up process, by bringing a magnet close to the hearing aid, the normal operation is started, and wherein parameters for changing tone may be switched by turning the magnetic switch on and off by bringing a magnet close to the hearing aid during normal operation. a battery; a control means which controls a function of the hearing aid, including a wireless communication function; a power supply switch which switches between supply and block of power from the battery to the control means; and a magnetic switch connected to the control means, wherein: the control means are configured to proceed to a normal operation via a start-up process when power is supplied from the battery due to the power supply switch; if the magnetic switch is on during the start-up process, the control means switches a wireless communication setting before proceeding to the normal operation; and if the magnetic switch is off until the end of the start-up process, by bringing a magnet close to the hearing aid, the normal operation is started, and wherein the control means are configured to proceed to a normal operation via a start-up process when power is supplied from the battery due to the power supply switch; if the magnetic switch is on during the start-up process, the control means switches a wireless communication setting before proceeding to the normal operation; and if the magnetic switch is off until the end of the start-up process, by bringing a magnet close to the hearing aid, the normal operation is started, and wherein parameters for changing tone may be switched by turning the magnetic switch on and off by bringing a magnet close to the hearing aid during normal operation.