mhurhangee/patent-ind-claim-en huggingface dataset:
A wood splitter for mobile use, wherein the wood splitter comprises: a guiding tube ; a splitting wedge which is or can be connected to the guiding tube and, when connected to the guiding tube , can be moved along the guiding tube ; an insert or elongation which is or can be connected to the guiding tube and, when connected, protrudes outwards partially beyond an axial end of the guiding tube , wherein the elongation of the wood splitter can be inserted into a substrate, for example a chopping block or into the ground, for the purpose of splitting wood, characterised in that the wood splitter comprises: a base plate having a lower side , via which the base plate is positioned on a substrate, and an upper side ; and three connecting elements which protrude substantially perpendicularly from the upper side , wherein the first connecting element is designed to be connected to an axial end of the guiding tube , preferably the axial end of the elongation , and wherein the second connecting element and the third connecting element are designed to accommodate one other guiding tube each, wherein each other guiding tube is designed to be connected to a support wheel using which the wood splitter can be moved. a guiding tube ; a splitting wedge which is or can be connected to the guiding tube and, when connected to the guiding tube , can be moved along the guiding tube ; an insert or elongation which is or can be connected to the guiding tube and, when connected, protrudes outwards partially beyond an axial end of the guiding tube , wherein the elongation of the wood splitter can be inserted into a substrate, for example a chopping block or into the ground, for the purpose of splitting wood, characterised in that the wood splitter comprises: a base plate having a lower side , via which the base plate is positioned on a substrate, and an upper side ; and three connecting elements which protrude substantially perpendicularly from the upper side , wherein the first connecting element is designed to be connected to an axial end of the guiding tube , preferably the axial end of the elongation , and wherein the second connecting element and the third connecting element are designed to accommodate one other guiding tube each, wherein each other guiding tube is designed to be connected to a support wheel using which the wood splitter can be moved.
A base portion assembly for a needleless valve system, said base portion assembly comprising: a base portion with a body ; a valve coupling feature disposed on said body , wherein said valve coupling feature is configured for coupling to a base coupling feature of a valve of a positive displacement valve and a base coupling feature of a negative displacement valve ; and a valve having said base coupling feature and coupled to said valve coupling feature , said valve being a negative displacement valve; the base portion further comprising: an air channel configured for association with an air channel in a positive displacement valve, wherein said negative displacement valve does not include an air channel . a base portion with a body ; a valve coupling feature disposed on said body , wherein said valve coupling feature is configured for coupling to a base coupling feature of a valve of a positive displacement valve and a base coupling feature of a negative displacement valve ; and a valve having said base coupling feature and coupled to said valve coupling feature , said valve being a negative displacement valve; the base portion further comprising: an air channel configured for association with an air channel in a positive displacement valve, wherein said negative displacement valve does not include an air channel .
A liquid discharging device comprising: a liquid discharging unit to discharge a liquid including an active energy ray curable composition to an object divided into multiple sections including a first section and a second section adjacent to the first section ; an irradiator to irradiate the liquid with active energy rays to allow the liquid to cure; and a moving unit to move at least one of the irradiator and the object onto which the liquid is discharged, wherein the irradiator conducts temporary irradiation on the first section with the active energy rays in an integral of light less than a predetermined integral of light, irradiation on the second section disposed in a direction perpendicular to a moving direction of the moving unit with the active energy rays, and proper irradiation on the first section with the active energy rays in an integral of light to be not less than the predetermined integral of light, characterized in that the length of the irradiation range of the irradiator in a sub-scanning direction is shorter than the length of the discharging range in the sub-scanning direction. a liquid discharging unit to discharge a liquid including an active energy ray curable composition to an object divided into multiple sections including a first section and a second section adjacent to the first section ; an irradiator to irradiate the liquid with active energy rays to allow the liquid to cure; and a moving unit to move at least one of the irradiator and the object onto which the liquid is discharged, wherein the irradiator conducts temporary irradiation on the first section with the active energy rays in an integral of light less than a predetermined integral of light, irradiation on the second section disposed in a direction perpendicular to a moving direction of the moving unit with the active energy rays, and proper irradiation on the first section with the active energy rays in an integral of light to be not less than the predetermined integral of light, characterized in that the length of the irradiation range of the irradiator in a sub-scanning direction is shorter than the length of the discharging range in the sub-scanning direction.
Thread connecting device for connecting a first thermoplastic textile thread to a second thermoplastic textile thread , the thread connecting device having a pressure device for exerting a mechanical contact pressure on a pair of threads formed by the first thermoplastic textile thread and the second thermoplastic textile thread , and having an energy input device for welding the pair of threads while the pair of threads is arranged in the pressure device , wherein the pressure device comprises two pressure elements each having a pressure surface , at least one of the pressure elements being coupled to a drive, characterized in that the drive can displace the pressure element in a direction transverse to a longitudinal direction of the first thermoplastic textile thread and the second thermoplastic textile thread when the first thermoplastic textile thread and the second thermoplastic textile thread are clamped between the pressure surfaces .
Luminaire assembly for a high-voltage-proof LED luminaire , comprising: - a support element designed to be connected to a luminaire housing of the LED luminaire and to be at the same potential as the luminaire housing ; - a system assembly comprising an electrical operating device and an LED module ; - at least one insulating element arranged between the system assembly and the support element ; wherein the system assembly is spaced apart from the support element by a clearance ; characterized in that the LED module and the support element lie in one plane. - a support element designed to be connected to a luminaire housing of the LED luminaire and to be at the same potential as the luminaire housing ; - a system assembly comprising an electrical operating device and an LED module ; - at least one insulating element arranged between the system assembly and the support element ;
A method for digitally generating an optical element with integrated functionalities, in which a) a three-dimensional structure is generated from a printing material, which comprises an inorganic-organic hybrid polymer, via 3D printing, b) in the three-dimensional structure, at least one region having an additional functionality is generated by modifying a region on the surface and/or in the volume of the structure, characterised in that the additional functionality is selected from the group consisting of light-refracting elements. a) a three-dimensional structure is generated from a printing material, which comprises an inorganic-organic hybrid polymer, via 3D printing, b) in the three-dimensional structure, at least one region having an additional functionality is generated by modifying a region on the surface and/or in the volume of the structure,
A vat heating device, comprising: a vat having a bottom plate and used to accommodate a photosensitive resin ; a first portion of a heater disposed on the bottom plate, embedded in a bottom of the vat, and adjacent to the photosensitive resin to heat the photosensitive resin; a platform disposed above the vat; a second portion of the heater embedded in the platform; wherein the first portion of the heater is on an optical path of a light source for curing the photosensitive resin: - wherein the first portion of the heater is a transparent conductive glass, and wherein the transparent conductive glass is indium tin oxide (ITO) glass or fluorine-doped tin oxide (FTO) glass, and - wherein a surface resistance of the first portion of the heater is 10-1000Ω/sq. a vat having a bottom plate and used to accommodate a photosensitive resin ; a first portion of a heater disposed on the bottom plate, embedded in a bottom of the vat, and adjacent to the photosensitive resin to heat the photosensitive resin; a platform disposed above the vat; a second portion of the heater embedded in the platform; wherein the first portion of the heater is on an optical path of a light source for curing the photosensitive resin: - wherein the first portion of the heater is a transparent conductive glass, and wherein the transparent conductive glass is indium tin oxide (ITO) glass or fluorine-doped tin oxide (FTO) glass, and - wherein a surface resistance of the first portion of the heater is 10-1000Ω/sq. a platform disposed above the vat; a second portion of the heater embedded in the platform; wherein the first portion of the heater is on an optical path of a light source for curing the photosensitive resin: - wherein the first portion of the heater is a transparent conductive glass, and - wherein the first portion of the heater is a transparent conductive glass, and wherein the transparent conductive glass is indium tin oxide (ITO) glass or fluorine-doped tin oxide (FTO) glass, and - wherein a surface resistance of the first portion of the heater is 10-1000Ω/sq. - wherein a surface resistance of the first portion of the heater is 10-1000Ω/sq.
System for producing a combed fibre sliver (F), comprising a winding machine (W) having at least one combing machine, wherein the winding machine (W) is configured to produce for each combing machine a group of a plurality of lap rolls from lap sliver , having a transport system (T) which is configured to transport the lap rolls to at least one combing machine and to feed them to the combing heads , wherein the at least one combing machine is configured to produce a combed fibre sliver from each lap roll , wherein the fibre sliver or slivers is/are subsequently drawn to form a single fibre sliver (F), wherein the at least one combing machine has a measuring device which is configured to measure the deviation of the sliver mass of the fibre sliver (F), wherein a controller of the combing machine is configured to compare the sliver mass of the fibre sliver (F) with a desired sliver weight and to allocate it to the discharge length of the lap roll , characterised in that , by means of these data, the draft and/or tension of the lap sliver can be adjusted at the winding machine (W) for the next group of lap rolls for this combing machine via the lap length, wherein the draft and/or tension takes place at the winding machine (W) by means of an actuation of at least one drawing unit and/or the change in the relative speed between two winding elements.
A method for reducing the oxidized form of Granulocyte Colony Stimulating Factor (GCSF) obtained from inclusion bodies, comprising the steps of; a) solubilization of inclusion bodies in denaturant comprising 8 M urea, pH 11 to pH 13, wherein the solubilization step is immediately (without incubation) followed by step (b), b) addition of a refolding buffer comprising a basic amino acid and a polyalcohol, pH from 8.6 to 9.4, to the solubilized mixture of step (a), c) addition of redox shuffling mixture comprising 0.2 mM cysteine and 1.8 mM cystine to the refolded mixture of step (b) and incubation for 16 hours, wherein, the said method reduces the oxidized forms of GCSF to less than 1.5%. a) solubilization of inclusion bodies in denaturant comprising 8 M urea, pH 11 to pH 13, wherein the solubilization step is immediately (without incubation) followed by step (b), b) addition of a refolding buffer comprising a basic amino acid and a polyalcohol, pH from 8.6 to 9.4, to the solubilized mixture of step (a), c) addition of redox shuffling mixture comprising 0.2 mM cysteine and 1.8 mM cystine to the refolded mixture of step (b) and incubation for 16 hours, wherein, the said method reduces the oxidized forms of GCSF to less than 1.5%.
A method of controlling one or more lighting devices , the method comprising: - controlling the one or more lighting devices according to a dynamic light scene, wherein the dynamic light scene comprises first lighting control settings for controlling an intensity (i) of the light output of the one or more lighting devices , wherein the intensity changes over a time period (t), - receiving an input signal indicative of an activation of a pre-programmed second light scene during the time period, wherein the second light scene comprises one or more second lighting control settings for changing the light output of the one or more lighting devices , - analyzing the dynamic light scene to determine a change of the intensity of the light output of the one or more lighting devices for an upcoming time period (u) after the activation (t x ) of the second light scene, - generating a modified light scene by combining the dynamic light scene and the second light scene based on the second lighting control settings of the second light scene and the determined change of the intensity of the upcoming time period of the dynamic light scene, and - controlling the one or more lighting devices according to the modified light scene during the upcoming time period, wherein the second light scene is a second dynamic light scene comprising second lighting control settings for controlling a second intensity of the light output of the one or more lighting devices , wherein the second intensity changes over a second time period. - controlling the one or more lighting devices according to a dynamic light scene, wherein the dynamic light scene comprises first lighting control settings for controlling an intensity (i) of the light output of the one or more lighting devices , wherein the intensity changes over a time period (t), - receiving an input signal indicative of an activation of a pre-programmed second light scene during the time period, wherein the second light scene comprises one or more second lighting control settings for changing the light output of the one or more lighting devices , - analyzing the dynamic light scene to determine a change of the intensity of the light output of the one or more lighting devices for an upcoming time period (u) after the activation (t x ) of the second light scene, - generating a modified light scene by combining the dynamic light scene and the second light scene based on the second lighting control settings of the second light scene and the determined change of the intensity of the upcoming time period of the dynamic light scene, and - controlling the one or more lighting devices according to the modified light scene during the upcoming time period,
A method, comprising: at a radio receiver circuit, receiving a radio frequency signal and producing a baseband signal as an output therefrom; at a channel filter having a variable bandwidth , receiving the baseband output at a filter input and producing a filtered output at a filter output thereof; estimating a pre-filtering signal-to-noise ratio, SNR, of the baseband signal present at the channel filter input and a post-filtering SNR of the filtered baseband signal; and controlling the channel filter bandwidth in accord with at least one of the estimate of the pre-filtering SNR of the baseband signal and the estimate of the post-filtering SNR of the filtered baseband signal; where the pre-filtering SNR is estimated by calculating a Fast Fourier Transform, FFT, of a frequency spectrum present at the channel filter input. at a radio receiver circuit, receiving a radio frequency signal and producing a baseband signal as an output therefrom; at a channel filter having a variable bandwidth , receiving the baseband output at a filter input and producing a filtered output at a filter output thereof; estimating a pre-filtering signal-to-noise ratio, SNR, of the baseband signal present at the channel filter input and a post-filtering SNR of the filtered baseband signal; and controlling the channel filter bandwidth in accord with at least one of the estimate of the pre-filtering SNR of the baseband signal and the estimate of the post-filtering SNR of the filtered baseband signal; where the pre-filtering SNR is estimated by calculating a Fast Fourier Transform, FFT, of a frequency spectrum present at the channel filter input.
Saddled vehicle comprising a brake caliper cooling structure which includes a rear brake caliper that gives a braking force to a rear wheel (WR) and a swing arm that shaft-supports the rear wheel (WR) in a rotatable manner, the brake caliper cooling structure comprising: an air duct attached to a lower surface of the swing arm and defining a hollow passage , wherein the air duct is provided with an intake port located on a vehicle body front side of the rear wheel (WR), in side view of a vehicle body, and an exhaust port disposed in a vicinity of a vehicle body front side of the rear brake caliper , characterized in that a curved passage curved to the transverse directionally inner side is connected to a rear portion of the hollow passage , and the exhaust port is formed at a rear end portion of the curved passage and that the curved passage includes a lower half formed integrally with a central portion of the air duct , and an upper half connected to the central portion , wherein the upper half extends to a vehicle body front side to constitute also a ceiling surface of the hollow passage which contacts the lower surface of the swing arm . an air duct attached to a lower surface of the swing arm and defining a hollow passage , wherein the air duct is provided with an intake port located on a vehicle body front side of the rear wheel (WR), in side view of a vehicle body, and an exhaust port disposed in a vicinity of a vehicle body front side of the rear brake caliper ,
A device for recovering a vehicle , the vehicle being a surface vessel or an underwater vessel, for lifting it on a ship, a floating platform or a fixed installation fastened to the seabed, the recovery device comprising a floating cradle configured to receive and support the vehicle , the cradle being configured so that the vehicle on the surface of the water can enter the cradle floating on the surface of the water from a rear end of the cradle , the cradle having an entrance for the vehicle situated at the rear end of the cradle and delimited between two lateral portions , the cradle being configured with a rear lateral extension extending toward the rear from one of the two lateral portions , the other lateral portion having no rear lateral extension.
A braking and/or clamping device for a shaft guided in relation to a main body , wherein the brake and/or clamping device comprises an actuating subassembly and a shaft attachment subassembly , - wherein the actuating subassembly comprises two annular discs which rest closely against one another directly or via an intermediate member in a common contact zone and each have an elastically pliable bending zone in sections outside the contact zone , - wherein the annular discs each have jaws with frictional faces in two clamping zones lying opposite one another, the surface normals whereof are oriented inwardly, - wherein a sealed pressure chamber is arranged between the annular discs which can be filled with pressure medium for the elastic pressing-apart of the friction surfaces , - wherein the shaft attachment subassembly comprises a coupling region which has two frictional faces spaced apart from one another, the surface normals whereof point outwardly, - wherein the shaft attachment subassembly comprises a shaft attachment region , - wherein the shaft attachment region is arranged on the coupling region either directly or indirectly via a clamping mechanism and - wherein when the pressure chamber is relaxed, the friction faces of the actuating subassembly are applied to the friction faces of the shaft attachment subassembly while supplying the clamping and/or braking force. - wherein the actuating subassembly comprises two annular discs which rest closely against one another directly or via an intermediate member in a common contact zone and each have an elastically pliable bending zone in sections outside the contact zone , - wherein the annular discs each have jaws with frictional faces in two clamping zones lying opposite one another, the surface normals whereof are oriented inwardly, - wherein a sealed pressure chamber is arranged between the annular discs which can be filled with pressure medium for the elastic pressing-apart of the friction surfaces , - wherein the shaft attachment subassembly comprises a coupling region which has two frictional faces spaced apart from one another, the surface normals whereof point outwardly, - wherein the shaft attachment subassembly comprises a shaft attachment region , - wherein the shaft attachment region is arranged on the coupling region either directly or indirectly via a clamping mechanism and - wherein when the pressure chamber is relaxed, the friction faces of the actuating subassembly are applied to the friction faces of the shaft attachment subassembly while supplying the clamping and/or braking force.
A protein comprising an amino acid sequence selected from the group consisting of: SEQ ID NO:6, and fragments of SEQ ID NO:6 comprising 600 or more amino acids of SEQ ID NO:6.