mhurhangee/ep-ind-claims huggingface dataset:
A target assembly for an isotope production system, the target assembly comprising: a target body having a production chamber and a beam passage, the production chamber being positioned to receive a particle beam directed through the beam passage, the production chamber configured to hold a target material; first and second grid sections (225, 238) of the target body disposed in the beam passage, each of the first and second grid sections (225, 238) having front and back sides (270, 272, 274, 276), the back side of the first grid section and the front side of the second grid section abutting each other with an interface therebetween, the back side of the second grid section facing the production chamber; and a front foil positioned between the first and second grid sections (225, 238) at the interface, each of the first and second grid sections (225, 238) having interior walls (282, 284) that define grid channels (286, 288) through the first and second grid sections (225, 238), respectively, the particle beam configured to pass through the grid channels (286, 288) toward the production chamber, the interior walls (282, 284) of the first and second grid sections (225, 238) engaging opposite sides of the front foil. a target body having a production chamber and a beam passage, the production chamber being positioned to receive a particle beam directed through the beam passage, the production chamber configured to hold a target material; first and second grid sections (225, 238) of the target body disposed in the beam passage, each of the first and second grid sections (225, 238) having front and back sides (270, 272, 274, 276), the back side of the first grid section and the front side of the second grid section abutting each other with an interface therebetween, the back side of the second grid section facing the production chamber; and a front foil positioned between the first and second grid sections (225, 238) at the interface, each of the first and second grid sections (225, 238) having interior walls (282, 284) that define grid channels (286, 288) through the first and second grid sections (225, 238), respectively, the particle beam configured to pass through the grid channels (286, 288) toward the production chamber, the interior walls (282, 284) of the first and second grid sections (225, 238) engaging opposite sides of the front foil.
A pharmaceutical composition comprising (a) a pharmaceutically acceptable gallium salt and (b) at least one delivery agent selected from the following compounds of Formula, and pharmaceutically acceptable salts thereof: 2-HO-Ar-C -NR 8 -R 7 -COOH Formula wherein Ar is phenyl, optionally substituted with OH, halogen, C 1 -C 4 alkyl, C 2 -C 4 alkenyl, C 1 -C 4 alkoxy or C 1 -C 4 haloalkoxy; R 7 is C 4 -C 20 alkyl, or C 4 -C 20 alkenyl; R 8 is hydrogen, C 1 -C 4 alkyl, C 2 -C 4 alkenyl, C 1 -C 4 alkoxy or C 1 -C 4 haloalkoxy. Ar is phenyl, optionally substituted with OH, halogen, C 1 -C 4 alkyl, C 2 -C 4 alkenyl, C 1 -C 4 alkoxy or C 1 -C 4 haloalkoxy; R 7 is C 4 -C 20 alkyl, or C 4 -C 20 alkenyl; R 8 is hydrogen, C 1 -C 4 alkyl, C 2 -C 4 alkenyl, C 1 -C 4 alkoxy or C 1 -C 4 haloalkoxy.
DC voltage converter for supplying redundant systems in safety engineering with a first and at least one second processing channel, comprising a transformer which is connected on the primary side via a switching element to an input voltage in a controllable manner and which has on the secondary side a first and at least one second output circuit for providing in each case an output voltage (U1, U2) for supplying one processing channel in each case, a pulse-width modulator which controls the primary-side switching element in pulsed manner, and a regulating device, the regulating device being assigned to the first output circuit and being designed to regulate the pulse-width modulator in such a way that a first output voltage of the first output circuit is stabilized, and wherein each second output circuit is assigned a voltage regulator on the output side which stabilises a second output voltage of the respective second output circuit, the transformer has a single secondary winding on the secondary side, the second output circuits are connected in parallel with the first output circuit to the first secondary winding, and the first output circuit comprises a first diode, characterized in that the first output circuit comprises at least one further diode (D3, D4), said at least one further diode (D3, D4) being connected in series with said first diode.
A compound of the formula: wherein R 1 is H, F, Cl, Br, I; R 2 is H or C 1-10 -alkyl; R 3 is H or -R 4 -Z R 4 is selected from divalent oligomeric radicals of the formula: wherein R 5 is H or C 1-10 -alkyl; R 6 is a divalent C 1-10 -alkyl radical; EO ethylene oxide; PO is propylene oxide; and x, y, and z are positive integers or fractional numbers between 0 and 20, and (x + y + z) ≥ 1; Z is selected from groups of the formula: wherein R 7 and R 8 each independently are H or C 1-10 -alkyl; n is an integer between 1 and 10; and m is a positive integer or fraction thereof between 1 and 20. R 1 is H, F, Cl, Br, I; R 2 is H or C 1-10 -alkyl; R 3 is H or -R 4 -Z R 4 is selected from divalent oligomeric radicals of the formula: wherein R 5 is H or C 1-10 -alkyl; R 6 is a divalent C 1-10 -alkyl radical; EO ethylene oxide; PO is propylene oxide; and x, y, and z are positive integers or fractional numbers between 0 and 20, and (x + y + z) ≥ 1; R 5 is H or C 1-10 -alkyl; R 6 is a divalent C 1-10 -alkyl radical; EO ethylene oxide; PO is propylene oxide; and x, y, and z are positive integers or fractional numbers between 0 and 20, and (x + y + z) ≥ 1; Z is selected from groups of the formula: wherein R 7 and R 8 each independently are H or C 1-10 -alkyl; n is an integer between 1 and 10; and m is a positive integer or fraction thereof between 1 and 20. R 7 and R 8 each independently are H or C 1-10 -alkyl; n is an integer between 1 and 10; and m is a positive integer or fraction thereof between 1 and 20.
A magnetic resonance imaging system comprising: first and second cylindrical MRI magnet housings (102a, 102b) separated by an MRI magnet gap; a first main MRI magnet disposed within the first MRI magnet housing; a second main MRI magnet disposed within the second MRI magnet housing; and a plurality of buttress assemblies attached to the first and second MRI magnet housings (102a, 102b); the plurality of buttress assemblies supporting and connecting the first and second MRI magnet to each other; each of the buttress assemblies including a first buttress sub-assembly attached to the first MRI magnet housing and extending radially from an outer surface of the first MRI magnet housing and a second buttress sub-assembly attached to the second MRI magnet housing and extending radially from an outer surface of the second MRI magnet housing, and a central buttress connector connected to the first and second buttress sub-assemblies; and wherein at least one of the plurality of buttress assemblies is removably attached to the first and second MRI magnet housings (102a, 102b), in that its first and second sub-assemblies are removably attached to the first and second MRI magnet housings (102a, 102b), respectively, and wherein also the central buttress connector is removably connected to the first and second buttress sub-assemblies. first and second cylindrical MRI magnet housings (102a, 102b) separated by an MRI magnet gap; a first main MRI magnet disposed within the first MRI magnet housing; a second main MRI magnet disposed within the second MRI magnet housing; and a plurality of buttress assemblies attached to the first and second MRI magnet housings (102a, 102b); the plurality of buttress assemblies supporting and connecting the first and second MRI magnet to each other; each of the buttress assemblies including a first buttress sub-assembly attached to the first MRI magnet housing and extending radially from an outer surface of the first MRI magnet housing and a second buttress sub-assembly attached to the second MRI magnet housing and extending radially from an outer surface of the second MRI magnet housing, and a central buttress connector connected to the first and second buttress sub-assemblies; and wherein at least one of the plurality of buttress assemblies is removably attached to the first and second MRI magnet housings (102a, 102b), in that its first and second sub-assemblies are removably attached to the first and second MRI magnet housings (102a, 102b), respectively, and wherein also the central buttress connector is removably connected to the first and second buttress sub-assemblies.
A turbine having turbine blades (1, 2)being arranged in the circumferential direction of the turbine driven by a working fluid, characterised in that the turbine blades (1, 2) are each formed such that the dimensionless blade suction surface curvature, which is defined as a value resulting from multiplying the reciprocal of the radius of curvature of a blade surface on the blade suction surface side by a pitch (t) defined by the distance between two adjacent blades (1, 2) in the circumferential direction, is set to a constant value in a region from a blade leading edge defined as the upstream-most point of the blade (1, 2) in the axial direction toward a point most projecting on the blade suction surface side in the circumferential direction and Is decreased monotonously from said point most projecting on the blade suction surface side in the circumferential direction toward a blade trailing edge defined as the downstream-most point of the blade (1, 2) in the axial direction.
Use of an agent for improving the taste of potassium chloride or potassium chloride-containing foods and drinks, said agent comprising: (a) quinic acid or quinic acid-containing compositions, (b) spilanthol or spilanthol-containing plant extracts or plant essential oils, and optionally (c) Allium plant extracts. (a) quinic acid or quinic acid-containing compositions, (b) spilanthol or spilanthol-containing plant extracts or plant essential oils, and optionally (c) Allium plant extracts.
Plain bearing bushing having a cylindrical covering face which is formed from a material strip in such a manner that in the peripheral direction two abutment ends (6, 8) are arranged adjacent to each other, wherein at a first abutment end a projection and at a second abutment end a recess which is in positive-locking engagement with the projection are arranged, characterised in that the projection and the recess can be introduced one into the other in a peripheral direction and are connected to each other in a frictionally engaging manner.
A furniture hinge having a furniture carcass-side hinge portion to be pre-assembled to a furniture carcass and a door-side hinge portion to be pre-assembled to a door wing, wherein the hinge portions (4, 6) are jointedly connected by means of at least one link axis and wherein at least one of the hinge portions (4, 6) comprises a height adjustment means, wherein the furniture carcass-side hinge portion comprising the lateral adjustment means includes a flange portion and a base plate, and the lateral adjustment means pivots the furniture carcass-side hinge portion around an imaginary pivot axis located in the furniture carcass and extending in parallel with the link axis, wherein the lateral adjustment means comprises an inner cylindrical surface of the base plate, characterized in that the inner cylindrical surface cooperates with a pin connected with the flange portion and seated in a pin seat of the flange portion, which pin, upon operation of an adjustment screw for lateral adjustment, screwed into the flange portion and hooked into the base plate, is guided on the inner cylindrical surface.
A pipe cover that is used to cover an outer periphery of a pipe, the pipe cover comprising: a base that is formed of a tubular heat insulator, and a surface member that covers an outer surface of the base, a heat radiation section (a) and a heat radiation-suppressing section (b) being provided on an outer surface of the surface member, and an emissivity of the heat radiation section (a) at a wavelength of 2 to 15 μm being higher than an emissivity of the heat radiation-suppressing section (b) at a wavelength of 2 to 15 μm, wherein the surface member is formed of a metal thin film, the heat radiation-suppressing section (b) is formed of a coating film of an antioxidant that suppresses oxidation of a metal that forms the surface member, and the heat radiation section (a) is formed of a ceramic thin film or a carbon thin film. a base that is formed of a tubular heat insulator, and a surface member that covers an outer surface of the base, a heat radiation section (a) and a heat radiation-suppressing section (b) being provided on an outer surface of the surface member, and an emissivity of the heat radiation section (a) at a wavelength of 2 to 15 μm being higher than an emissivity of the heat radiation-suppressing section (b) at a wavelength of 2 to 15 μm, wherein the surface member is formed of a metal thin film, the heat radiation-suppressing section (b) is formed of a coating film of an antioxidant that suppresses oxidation of a metal that forms the surface member, and the heat radiation section (a) is formed of a ceramic thin film or a carbon thin film.
A process for continuously producing water-absorbing polymer particles, comprising the polymerization of a monomer solution or suspension comprising a) acrylic acid which may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with acrylic acid and e) optionally one or more water-soluble polymers, to give a polymer gel, the drying of the resulting polymer gel, the comminution of the dried polymer gel to give polymer particles and the classification of the resulting polymer particles, wherein the acrylic acid is supplied continuously, the acrylic acid supplied continuously has a purity of from 80 to 99.5% by weight and the purity of the acrylic acid supplied continuously varies by less than 0.5% by weight within 24 hours. a) acrylic acid which may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with acrylic acid and e) optionally one or more water-soluble polymers,
A battery monitoring apparatus configured to monitor a secondary battery that produces a change in reaction heat at a predetermined capacity when a storage capacity of the secondary battery changes during a current conduction, the battery monitoring apparatus comprising: an acquiring unit configured to acquire, during current conduction, an impedance change of the secondary battery; and a capacity determination unit configured to determine, based on the impedance change acquired by the acquiring unit, whether the storage capacity of the secondary battery corresponds to the predetermined capacity, wherein the predetermined capacity includes a first capacity and a second capacity; during charging, for capacities larger than the first capacity, an absolute value of the impedance change is greater than that for capacities smaller than the first capacity, and for larger capacities than the second capacity, the absolute value of the impedance change is smaller than that for capacities smaller than the second capacity; during discharging, for smaller capacities than the first capacity, the absolute value of the impedance change is greater than that for capacities larger than the first capacity, and for smaller capacities than the second capacity, the absolute value of the impedance change is smaller than that for larger capacities than the second capacity; and the capacity determination unit is configured to determine the storage capacity of the secondary battery to be the first capacity when the impedance change decreases during the current-conduction and to determine the storage capacity of the secondary battery to be the second capacity when the impedance change increases during the current-conduction. an acquiring unit configured to acquire, during current conduction, an impedance change of the secondary battery; and a capacity determination unit configured to determine, based on the impedance change acquired by the acquiring unit, whether the storage capacity of the secondary battery corresponds to the predetermined capacity, wherein the predetermined capacity includes a first capacity and a second capacity; during charging, for capacities larger than the first capacity, an absolute value of the impedance change is greater than that for capacities smaller than the first capacity, and for larger capacities than the second capacity, the absolute value of the impedance change is smaller than that for capacities smaller than the second capacity; during discharging, for smaller capacities than the first capacity, the absolute value of the impedance change is greater than that for capacities larger than the first capacity, and for smaller capacities than the second capacity, the absolute value of the impedance change is smaller than that for larger capacities than the second capacity; and the capacity determination unit is configured to determine the storage capacity of the secondary battery to be the first capacity when the impedance change decreases during the current-conduction and to determine the storage capacity of the secondary battery to be the second capacity when the impedance change increases during the current-conduction.
A method for digitally generating a custom bone implant for insertion into a bone of a patient, the method characterized by the steps of: generating, using a medical scanning device, a three-dimensional digital representation of the bone of the patient by scanning the patient's bone; wherein the generated three-dimensional digital representation of the patient's bone includes at least data identifying different areas of relative bone density and porosity of the patient's bone; and generating a three-dimensional model of the custom bone implant for use in manufacturing an implant using at least the data obtained from scanning the bone to generate the three-dimensional digital model representation of the selected bone having the at least data identifying different areas of relative bone density and porosity of the patient's bone. generating, using a medical scanning device, a three-dimensional digital representation of the bone of the patient by scanning the patient's bone; wherein the generated three-dimensional digital representation of the patient's bone includes at least data identifying different areas of relative bone density and porosity of the patient's bone; and generating a three-dimensional model of the custom bone implant for use in manufacturing an implant using at least the data obtained from scanning the bone to generate the three-dimensional digital model representation of the selected bone having the at least data identifying different areas of relative bone density and porosity of the patient's bone.
An apparatus comprising: a receiver arranged to receive a first signal for indicating a parameter of K1, wherein K1 is a quantity of transport blocks, TBs, in a downlink association set; and receive a second signal for indicating a parameter of K2, wherein K2 is a quantity of hybrid automatic repeat request acknowledgement, HARQ-ACK, bit fields in a HARQ-ACK codebook; a processor arranged to determine, based on the first signal and the second signal, a size of the HARQ-ACK codebook; a transmitter arranged to transmit the HARQ-ACK codebook, wherein the HARQ-ACK codebook comprises a first part including K1 HARQ-ACK bits and a second part including K2 HARQ-ACK bit fields, wherein each bit in the first part corresponds to one transport block, TB, in the downlink association set, and each HARQ-ACK bit field in the second part comprises a plurality of HARQ-ACK bits and each of the plurality of HARQ-ACK bits corresponds to one code block group, CBG, of one incorrectly decoded TB in the downlink association set; wherein the second part is appended with one or more Acknowledgement, ACK, or Negative Acknowledgement, NACK, bits in response to K2 being identified to be greater than a quantity of actually incorrectly decoded TBs in the downlink association set; wherein the second part including K2 HARQ-ACK bit fields corresponds to a first K2 TBs of actually incorrectly decoded TBs in the downlink association set in response to K2 being identified to be smaller than a quantity of the actually incorrectly decoded TBs in the downlink association set. a receiver arranged to receive a first signal for indicating a parameter of K1, wherein K1 is a quantity of transport blocks, TBs, in a downlink association set; and receive a second signal for indicating a parameter of K2, wherein K2 is a quantity of hybrid automatic repeat request acknowledgement, HARQ-ACK, bit fields in a HARQ-ACK codebook; a processor arranged to determine, based on the first signal and the second signal, a size of the HARQ-ACK codebook; a transmitter arranged to transmit the HARQ-ACK codebook, wherein the HARQ-ACK codebook comprises a first part including K1 HARQ-ACK bits and a second part including K2 HARQ-ACK bit fields, wherein each bit in the first part corresponds to one transport block, TB, in the downlink association set, and each HARQ-ACK bit field in the second part comprises a plurality of HARQ-ACK bits and each of the plurality of HARQ-ACK bits corresponds to one code block group, CBG, of one incorrectly decoded TB in the downlink association set; wherein the second part is appended with one or more Acknowledgement, ACK, or Negative Acknowledgement, NACK, bits in response to K2 being identified to be greater than a quantity of actually incorrectly decoded TBs in the downlink association set; wherein the second part including K2 HARQ-ACK bit fields corresponds to a first K2 TBs of actually incorrectly decoded TBs in the downlink association set in response to K2 being identified to be smaller than a quantity of the actually incorrectly decoded TBs in the downlink association set.
Rotor of a rotational permanently excited synchronous motor, having: - axially laminated sheets which at least form an axial partial laminated core, wherein the outer periphery of the partial laminated core is configured in a star shape, such that the sheets of a partial laminated core are arranged so that axially extending notches with two contact surfaces each are formed at the outer periphery of the rotor, - permanent magnets which are positioned in the axially extending notches, wherein the sides of the permanent magnets facing the partly laminated core at least in sections abut the contact surfaces of the notches, in particular in a form-fit manner, wherein the contact surfaces of a notch form an obtuse angle at their point of intersection, characterised in that an axially extending groove is provided in the region of the point of intersection, in order the better to be able to insert the permanent magnets. - axially laminated sheets which at least form an axial partial laminated core, wherein the outer periphery of the partial laminated core is configured in a star shape, such that the sheets of a partial laminated core are arranged so that axially extending notches with two contact surfaces each are formed at the outer periphery of the rotor, - permanent magnets which are positioned in the axially extending notches, wherein the sides of the permanent magnets facing the partly laminated core at least in sections abut the contact surfaces of the notches, in particular in a form-fit manner,