mhurhangee/ep-ind-claims huggingface dataset:
A device for treating an aneurysm of a human or mammal patient, wherein the aneurysm may self-expand, leading to the aneurysm bursting with high risk for death of the human or mammal patient, the device comprising: an implantable member adapted to be placed in connection with the outside of a blood vessel having the aneurysm, and to exert a pressure on the outside of the blood vessel having the aneurysm, a pressure regulator (503, 603) adapted to regulate the pressure in the implantable member and thereby on the blood vessel having the aneurysm, the device being characterized by: a measuring device or sensor for measuring or sensing an expansion of the aneurysm, a control unit adapted to control said pressure regulator based on input from said measuring device or sensor, to increase the pressure when an expansion of the aneurysm occur, such that the expansion of the aneurysm is hindered or slowed down to avoid bursting of the aneurysm, an alarm system for warning that expansion of the aneurysm has occurred, and wherein the control unit is further adapted to control the alarm system to warn that expansion of the aneurysm has occurred. an implantable member adapted to be placed in connection with the outside of a blood vessel having the aneurysm, and to exert a pressure on the outside of the blood vessel having the aneurysm, a pressure regulator (503, 603) adapted to regulate the pressure in the implantable member and thereby on the blood vessel having the aneurysm, the device being characterized by: a measuring device or sensor for measuring or sensing an expansion of the aneurysm, a control unit adapted to control said pressure regulator based on input from said measuring device or sensor, to increase the pressure when an expansion of the aneurysm occur, such that the expansion of the aneurysm is hindered or slowed down to avoid bursting of the aneurysm, an alarm system for warning that expansion of the aneurysm has occurred, and wherein the control unit is further adapted to control the alarm system to warn that expansion of the aneurysm has occurred. a measuring device or sensor for measuring or sensing an expansion of the aneurysm, a control unit adapted to control said pressure regulator based on input from said measuring device or sensor, to increase the pressure when an expansion of the aneurysm occur, such that the expansion of the aneurysm is hindered or slowed down to avoid bursting of the aneurysm, an alarm system for warning that expansion of the aneurysm has occurred, and wherein the control unit is further adapted to control the alarm system to warn that expansion of the aneurysm has occurred.
A method of digital image processing in which first image data representing a digital image at a lower sampling frequency is up-sampled in a sampling ratio N:M to a higher sampling frequency in an up-sampling filter to produce second image data representing the said digital image at the higher sampling frequency, and said second image data at the said higher sampling frequency is down-sampled in a sampling ratio M:N to the said lower sampling frequency in a down-sampling filter to produce third image data representing said digital image at a lower sampling frequency, where the combination of the up-sampling filter and the down-sampling filter is substantially transparent, characterised in that N and M are integers, where 1<N<M and where M is not a multiple of N, and in that the frequency response of the down converter at the lower sampling frequency is less than 10% of the frequency response at DC.
Sheller, for shelling dried fruit, comprising means cooperating in relative motion, for receiving the dried fruit and breaking the shell of the fruit by means of a reciprocated motion device, stroke adjusting means of said means cooperating in relative motion, characterised in that said reciprocated motion device comprises an outlet eccentric element connected to a rotation axis in an adjustably fashion, and to at least one connecting rod, said outlet eccentric element constrained to the rotation with controlled grip locking means (201, 202, 203) of the rotation axis.
An alkaline fuel cell comprising: an air inlet operatively coupled with a two-trap air filter assembly; the two-trap air filter assembly including a series of at least one thermally regenerative chemical CO 2 trap constructed of an active material, including polymers with amine functional groups, arranged in tandem with a disposable CO 2 chemical trap that includes strong binders of CO 2, the thermally regenerative chemical CO 2 trap and CO 2 chemical trap being disposed downstream from inlet the disposable CO 2 trap disposed between the thermally regenerative chemical CO 2 trap and an inlet to the cathode of the alkaline fuel; the thermally regenerative chemical CO 2 trap and the disposable CO 2 chemical trap being configured to reduce levels of CO 2 in an air stream supplied to the inlet to the air cathode; and an air pump disposed between the at least one thermally regenerative chemical CO 2 trap and the disposable CO 2 chemical trap to introduce a flow of air stream through the at least one thermally regenerative chemical CO 2 trap and the disposable CO 2 chemical trap and into the inlet to the cathode of the alkaline fuel, wherein the alkaline fuel cell includes an alkaline aqueous electrolyte or an OH - ion conducting polymeric membrane without liquid electrolyte. an air inlet operatively coupled with a two-trap air filter assembly; the two-trap air filter assembly including a series of at least one thermally regenerative chemical CO 2 trap constructed of an active material, including polymers with amine functional groups, arranged in tandem with a disposable CO 2 chemical trap that includes strong binders of CO 2, the thermally regenerative chemical CO 2 trap and CO 2 chemical trap being disposed downstream from inlet the disposable CO 2 trap disposed between the thermally regenerative chemical CO 2 trap and an inlet to the cathode of the alkaline fuel; the thermally regenerative chemical CO 2 trap and the disposable CO 2 chemical trap being configured to reduce levels of CO 2 in an air stream supplied to the inlet to the air cathode; and an air pump disposed between the at least one thermally regenerative chemical CO 2 trap and the disposable CO 2 chemical trap to introduce a flow of air stream through the at least one thermally regenerative chemical CO 2 trap and the disposable CO 2 chemical trap and into the inlet to the cathode of the alkaline fuel, wherein the alkaline fuel cell includes an alkaline aqueous electrolyte or an OH - ion conducting polymeric membrane without liquid electrolyte.
A medical implant (1, 1') for attachment to and at least partly covering the femoral head, said medical implant comprising a dome shaped metallic shell (2, 2') with a skirt zone (4, 4') below the equatorial plane having a circular orifice, said shell (2, 2') having a height h 1, an equatorial shell radius r s and an orifice radius r o wherein - the shell radius r s > r o, and h 1 >r s, - the circular orifice is defined by a circumferential rounded edge, and - the medical implant (1, 1') is configured for at least initial unconstrained attachment to the unshaped natural femoral head such that the implant is free to rotate relative to the natural femoral head initially after insertion of the medical implant in a subject. - the shell radius r s > r o, and h 1 >r s, - the circular orifice is defined by a circumferential rounded edge, and - the medical implant (1, 1') is configured for at least initial unconstrained attachment to the unshaped natural femoral head such that the implant is free to rotate relative to the natural femoral head initially after insertion of the medical implant in a subject.
A random access method in a cognitive radio, CR, system, comprising: generating, by a base station device, a spectrum handover command, wherein the spectrum handover command comprises random access backoff time parameter information; and sending, by the base station device, the spectrum handover command to a user equipment, UE, in a cell to instruct the UE to initiate, during a spectrum handover procedure, a random access procedure using the random access backoff time parameter information; wherein the random access backoff time parameter information comprises: a random access delay factor sequence associated with service levels of different UEs in the cell, wherein the random access delay factor sequence is presented as T 1, T 2, T i-1, T i... T M, wherein M is the total number of the service levels, T i is a maximum random access delay factor of the i-th service level, and T i is a minimum random access delay factor of the (i+1)-th service level. generating, by a base station device, a spectrum handover command, wherein the spectrum handover command comprises random access backoff time parameter information; and wherein the spectrum handover command comprises random access backoff time parameter information; and sending, by the base station device, the spectrum handover command to a user equipment, UE, in a cell to instruct the UE to initiate, during a spectrum handover procedure, a random access procedure using the random access backoff time parameter information; wherein the random access backoff time parameter information comprises: a random access delay factor sequence associated with service levels of different UEs in the cell, wherein the random access delay factor sequence is presented as T 1, T 2, T i-1, T i... T M, wherein M is the total number of the service levels, T i is a maximum random access delay factor of the i-th service level, and T i is a minimum random access delay factor of the (i+1)-th service level. a random access delay factor sequence associated with service levels of different UEs in the cell, wherein the random access delay factor sequence is presented as T 1, T 2, T i-1, T i... T M, wherein M is the total number of the service levels, T i is a maximum random access delay factor of the i-th service level, and T i is a minimum random access delay factor of the (i+1)-th service level. wherein the random access delay factor sequence is presented as T 1, T 2, T i-1, T i... T M, wherein M is the total number of the service levels, T i is a maximum random access delay factor of the i-th service level, and T i is a minimum random access delay factor of the (i+1)-th service level.
An apparatus (100, 200) comprising: a depositing mechanism (110, 210) configured to perform an overcoat depositing operation, the depositing mechanism comprising a plurality of print head arrays (120, 122, 220, 222, 224) each being arrangeable in a deposit position (130, 230) to deposit an overcoat layer onto a substrate (135, 235) and a service position (140, 240) to enable servicing to be performed; and an array controller configured to cause at least one print head array of the plurality of print head arrays (120, 122, 220, 222, 224) to be moved periodically from the deposit position (130, 230) to the service position (140, 240) according to a predefined servicing sequence during an ongoing overcoat depositing operation performed by the depositing mechanism (110, 210), wherein the predefined servicing sequence has a predefined service interval between servicing operations for each print head array of the plurality of print head arrays (120, 122, 220, 222, 224), and characterized in that the array controller is configured to determine the predefined service interval by at least one characteristic of the overcoat layer. a depositing mechanism (110, 210) configured to perform an overcoat depositing operation, the depositing mechanism comprising a plurality of print head arrays (120, 122, 220, 222, 224) each being arrangeable in a deposit position (130, 230) to deposit an overcoat layer onto a substrate (135, 235) and a service position (140, 240) to enable servicing to be performed; and an array controller configured to cause at least one print head array of the plurality of print head arrays (120, 122, 220, 222, 224) to be moved periodically from the deposit position (130, 230) to the service position (140, 240) according to a predefined servicing sequence during an ongoing overcoat depositing operation performed by the depositing mechanism (110, 210), wherein the predefined servicing sequence has a predefined service interval between servicing operations for each print head array of the plurality of print head arrays (120, 122, 220, 222, 224), and characterized in that the array controller is configured to determine the predefined service interval by at least one characteristic of the overcoat layer.
A method for determining the course of Gaucher's disease in a subject comprising the step of determining at several points in time a level of a biomarker present in a sample from the subject, wherein the sample is selected from the group consisting of a blood sample, a serum sample, a plasma sample, a whole blood sample and a sample from whole blood collected on a dry blood filter card, wherein the biomarker is free lyso-Gb1 of formula and wherein the level of the biomarker is indicative of the severity of the disease in the subject.
Copolymer, comprising - a plurality of caboxyl monomer units derived from methacrylic acid monomers; - a plurality of phenyl monomer units, preferably phenyl monomer units derived from styrene monomers; - a plurality of first carboxylate ester monomer units derived from alkyl (meth-)acrylate monomers; - a plurality of second carboxylate ester monomer units derived from ethylhexyl acrylate monomers; wherein the first and the second carboxylate ester monomer units differ in their structural formula, characterized in that the relative amounts of monomer units are as follows: - 35-45 wt% of caboxyl monomer units derived from methacrylic acid monomers; - 25-30 wt% of phenyl monomer units, preferably phenyl monomer units derived from styrene monomers; - 10-15 wt% of first carboxylate ester monomer units derived from alkyl methacrylate monomers, - 12-20 wt% of second carboxylate ester monomer units derived from ethylhexyl acrylate monomers; based on an entire weight of the primary copolymer. - a plurality of caboxyl monomer units derived from methacrylic acid monomers; - a plurality of phenyl monomer units, preferably phenyl monomer units derived from styrene monomers; - a plurality of first carboxylate ester monomer units derived from alkyl (meth-)acrylate monomers; - a plurality of second carboxylate ester monomer units derived from ethylhexyl acrylate monomers; wherein the first and the second carboxylate ester monomer units differ in their structural formula, characterized in that the relative amounts of monomer units are as follows: - 35-45 wt% of caboxyl monomer units derived from methacrylic acid monomers; - 25-30 wt% of phenyl monomer units, preferably phenyl monomer units derived from styrene monomers; - 10-15 wt% of first carboxylate ester monomer units derived from alkyl methacrylate monomers, - 12-20 wt% of second carboxylate ester monomer units derived from ethylhexyl acrylate monomers; - 35-45 wt% of caboxyl monomer units derived from methacrylic acid monomers; - 25-30 wt% of phenyl monomer units, preferably phenyl monomer units derived from styrene monomers; - 10-15 wt% of first carboxylate ester monomer units derived from alkyl methacrylate monomers, - 12-20 wt% of second carboxylate ester monomer units derived from ethylhexyl acrylate monomers; based on an entire weight of the primary copolymer.
An optometric lens unit independent from a frame member and being used by being attached to and detachable from a frame member, comprising: a lens having an electrical element; a rim portion covering a peripheral edge portion of the lens; a control unit for controlling the electrical element; an electric power supply unit for supplying electric power to the electrical element; a conductive portion being disposed between the rim portion and the peripheral edge portion of the lens and electrically connecting between an end portion of an electrode of the electrical element and the control unit, the end portion of the electrode being exposed to the peripheral edge portion; and a knob portion protruding from the lens or the rim portion, and provided with the control unit. a lens having an electrical element; a rim portion covering a peripheral edge portion of the lens; a control unit for controlling the electrical element; an electric power supply unit for supplying electric power to the electrical element; a conductive portion being disposed between the rim portion and the peripheral edge portion of the lens and electrically connecting between an end portion of an electrode of the electrical element and the control unit, the end portion of the electrode being exposed to the peripheral edge portion; and a knob portion protruding from the lens or the rim portion, and provided with the control unit.
A liquefied gas cylinder filling level measuring device for measuring the filling level in a liquefied gas cylinder through the wall thereof by means of ultrasound, comprising an ultrasonic measuring head, a controller, and a fastening device, the fastening device containing at least one magnet, and the fastening device being configured to fasten the filling level measuring device to the liquefied gas cylinder such that the ultrasonic measuring head is pressed against the wall of the liquefied gas cylinder, a wireless communication interface being provided which includes a transmitter/receiver unit, a coupling cushion being provided which is arranged on the side of the ultrasonic measuring head facing the wall of the liquefied gas cylinder, characterized in that the liquefied gas cylinder filling level measuring device includes an integrated energy source, and in that a housing is provided in which the ultrasonic measuring head, the controller, the energy source, the fastening device, the wireless communication interface with the transmitter/receiver unit, and the coupling cushion are integrated, the housing being provided with a load transmission section which is arranged in the vicinity of the coupling cushion, and the magnet being arranged in a retainer which is closed by a housing wall on the side toward the liquefied gas cylinder.
Cord exhibiting a 1xN structure comprising a single layer of N strands wound in a helix, each strand having two layers of metal threads (F1, F2) and comprising: - an internal layer made up of M≥1 internal metal thread(s) of diameter D1, - an external layer made up of P>1 external metal threads of diameter D2 wound around the internal layer, characterized in that - the cord exhibits a structural elongation As determined by applying the standard ASTM D2969-04 of 2014 such that As ≥ 3.00%, - the cord satisfies MC ≤ 127, where MC= 200 x cos 4 (α) x [M x (D1 / 2) 2 x cos 4 (β) + P x (D2 / 2) 2 x cos 4 (γ)] / [M x (D1 / 2) 2 + P x (D2 / 2) 2], where: - D1 and D2 are expressed in mm, - α is the helix angle of each strand in the cord, - β is the helix angle of each internal metal thread in the internal layer, and - γ is the helix angle of each external metal thread in the external layer, - the mechanical strength of at least 50% of the metal threads (F1, F2) of diameter D1 and D2, measured according to the standard ASTM D2969-04, is greater than or equal to 3500-2000 x D1 for a metal thread of diameter D1 and greater than or equal to 3500-2000 x D2 for a metal thread of diameter D2. - an internal layer made up of M≥1 internal metal thread(s) of diameter D1, - an external layer made up of P>1 external metal threads of diameter D2 wound around the internal layer, characterized in that - the cord exhibits a structural elongation As determined by applying the standard ASTM D2969-04 of 2014 such that As ≥ 3.00%, - the cord satisfies MC ≤ 127, where MC= 200 x cos 4 (α) x [M x (D1 / 2) 2 x cos 4 (β) + P x (D2 / 2) 2 x cos 4 (γ)] / [M x (D1 / 2) 2 + P x (D2 / 2) 2], where: - D1 and D2 are expressed in mm, - α is the helix angle of each strand in the cord, - β is the helix angle of each internal metal thread in the internal layer, and - γ is the helix angle of each external metal thread in the external layer, - D1 and D2 are expressed in mm, - α is the helix angle of each strand in the cord, - β is the helix angle of each internal metal thread in the internal layer, and - γ is the helix angle of each external metal thread in the external layer, - the mechanical strength of at least 50% of the metal threads (F1, F2) of diameter D1 and D2, measured according to the standard ASTM D2969-04, is greater than or equal to 3500-2000 x D1 for a metal thread of diameter D1 and greater than or equal to 3500-2000 x D2 for a metal thread of diameter D2.
A crystalline salt of a compound of Formula: wherein: R 1 is C 1 -C 3 alkyl, C 1 -C 3 deuteroalkyl, or C 1 -C 3 haloalkyl; ∗ is a stereocenter; n is an integer from 1 to 20; R 2 is 9-Fluorenylmethoxycarbonyl (Fmoc);and R 3 is -H; and wherein the salt is a C 3-8 cycloalkylamine salt. R 1 is C 1 -C 3 alkyl, C 1 -C 3 deuteroalkyl, or C 1 -C 3 haloalkyl; ∗ is a stereocenter; n is an integer from 1 to 20; R 2 is 9-Fluorenylmethoxycarbonyl (Fmoc);and R 3 is -H; and wherein the salt is a C 3-8 cycloalkylamine salt.
A method for producing a three-dimensional object by applying, layer by layer, and selectively solidifying a pulverulent build material through the action of energy, comprising the steps: applying a layer of the pulverulent build material onto a carrier or onto a previously applied and at least selectively solidified layer of the build material, scanning the locations of the applied layer that correspond to a cross section of the object to be produced using an energy beam from an energy source for selectively solidifying the pulverulent build material, and conducting a gas flow in a main flow direction over the applied layer during the scanning with the energy beam, characterized in that the scanning direction of the energy beam and the main flow direction of the gas flow are matched to one another at least in a region of the cross section to be solidified in a manner that for a given main flow direction, the scanning direction is selected correspondingly and/or that for a given scanning direction, the main flow direction is adapted to this scanning direction, wherein the scanning direction of the energy beam and the main flow direction of the gas flow are matched to one another such that an angle (γ) located between them lies in a range between 22.5° and 337.5°, preferably between 45° and 315°, more preferably between 60° and 300°, and even more preferably between 90° and 270°. applying a layer of the pulverulent build material onto a carrier or onto a previously applied and at least selectively solidified layer of the build material, scanning the locations of the applied layer that correspond to a cross section of the object to be produced using an energy beam from an energy source for selectively solidifying the pulverulent build material, and conducting a gas flow in a main flow direction over the applied layer during the scanning with the energy beam, characterized in that the scanning direction of the energy beam and the main flow direction of the gas flow are matched to one another at least in a region of the cross section to be solidified in a manner that for a given main flow direction, the scanning direction is selected correspondingly and/or that for a given scanning direction, the main flow direction is adapted to this scanning direction, wherein the scanning direction of the energy beam and the main flow direction of the gas flow are matched to one another such that an angle (γ) located between them lies in a range between 22.5° and 337.5°, preferably between 45° and 315°, more preferably between 60° and 300°, and even more preferably between 90° and 270°.