mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device bonding wire comprising: a core material whose components include copper as a main component; an outer layer provided on said core material, said outer layer containing a metal M that differs from said core material in one or both of component and composition, and copper, wherein said metal M is at least one of Pd and Au, and said outer layer is 0.021 to 0.12μm in thickness, characterized in that said outer layer contains at least one element selected from among Bi, P, Se and Tl, and an elemental concentration of said at least one element on a surface of said outer layer is in a range of from 0.01 to 5mol% in total. a core material whose components include copper as a main component; an outer layer provided on said core material, said outer layer containing a metal M that differs from said core material in one or both of component and composition, and copper, wherein said metal M is at least one of Pd and Au, and said outer layer is 0.021 to 0.12μm in thickness, characterized in that said outer layer contains at least one element selected from among Bi, P, Se and Tl, and an elemental concentration of said at least one element on a surface of said outer layer is in a range of from 0.01 to 5mol% in total.
A fuel cell assembly, comprising: a first electrode; a second electrode; a membrane between the first electrode and the second electrode; a fluid distribution plate having at least one reactant flow channel extending from a reactant inlet near one edge of the fluid distribution plate to an outlet; and a coolant supply channel near the at least one reactant flow channel, the coolant supply channel extending from a coolant inlet spaced from the reactant inlet to a coolant outlet, the coolant supply channel having a first portion between the coolant inlet and a second portion near the reactant inlet, the first portion facilitating coolant flow from the coolant inlet directly toward the second portion, the second portion comprising a plurality of channel sections that collectively facilitate coolant flow in a plurality of directions along the second portion near the reactant inlet, the coolant supply channel having a third portion between the second portion and the coolant outlet, wherein the coolant supply channel is established on at least one side of the fluid distribution plate and the second portion occupies approximately one quadrant of the plate that includes a corner of the plate that is near the reactant inlet. a first electrode; a second electrode; a membrane between the first electrode and the second electrode; a fluid distribution plate having at least one reactant flow channel extending from a reactant inlet near one edge of the fluid distribution plate to an outlet; and a coolant supply channel near the at least one reactant flow channel, the coolant supply channel extending from a coolant inlet spaced from the reactant inlet to a coolant outlet, the coolant supply channel having a first portion between the coolant inlet and a second portion near the reactant inlet, the first portion facilitating coolant flow from the coolant inlet directly toward the second portion, the second portion comprising a plurality of channel sections that collectively facilitate coolant flow in a plurality of directions along the second portion near the reactant inlet, the coolant supply channel having a third portion between the second portion and the coolant outlet, wherein the coolant supply channel is established on at least one side of the fluid distribution plate and the second portion occupies approximately one quadrant of the plate that includes a corner of the plate that is near the reactant inlet.
An electronic or photonic component comprising a film deposited over all or part of said component, said film comprising a spin transition material, characterized in that the spin transition material has the following properties: a. Said material has a spin transition at a temperature of between 40 and 100°C with a hysteresis width less than 1°C, b. The stability of said spin transition temperature on cycling is greater than 10,000 thermal cycles with a reproducibility less than or equal to 1°C; c. Said material is sublimable. a. Said material has a spin transition at a temperature of between 40 and 100°C with a hysteresis width less than 1°C, b. The stability of said spin transition temperature on cycling is greater than 10,000 thermal cycles with a reproducibility less than or equal to 1°C; c. Said material is sublimable.
A method for preparing an injectable trace element solution, comprising the steps of: (a) mixing MnCO 3 as manganese salt in 80% or 60% water to form a mixture; (b) heating the mixture of step (a) at 80°C; (c) adding ZnO as zinc salt to the mixture of step (b); (d) adding EDTA and NaOH to the mixture of step (c); (e) heating the mixture of step (d) at 100°C; (f) adding copper as carbonate or SO 4 salt to the mixture step (e); (g) cooling the mixture of step (f) at 50°C; (h) adding benzyl alcohol, Na 2 SeO 3 as selenium salt, butaphosphan and Vitamin B12 to the mixture of step (g); and (i) adjusting the pH of the mixture of step (h). (a) mixing MnCO 3 as manganese salt in 80% or 60% water to form a mixture; (b) heating the mixture of step (a) at 80°C; (c) adding ZnO as zinc salt to the mixture of step (b); (d) adding EDTA and NaOH to the mixture of step (c); (e) heating the mixture of step (d) at 100°C; (f) adding copper as carbonate or SO 4 salt to the mixture step (e); (g) cooling the mixture of step (f) at 50°C; (h) adding benzyl alcohol, Na 2 SeO 3 as selenium salt, butaphosphan and Vitamin B12 to the mixture of step (g); and (i) adjusting the pH of the mixture of step (h).
Process for preparing polyisocyanate mixtures comprising cycloaliphatic structural elements and also, based on the solvent-free form, a linear-aliphatically attached free isocyanate group content of 4.0 to 26.0% by weight and an average NCO functionality of 1.9 to 8.0, wherein A) a polyisocyanate component having an average functionality of 2.0 to 5.0 and a linear-aliphatically attached isocyanate group content (calculated as NCO; molecular weight = 42) of 8.0% to 27.0% by weight is reacted with B) 2 to 80% by weight, based on the total amount of components A) and B) employed, of at least one hydroxyurethane which is based on a cycloaliphatic di- and/or polyisocyanate, is free from isocyanate groups, optionally contains urea groups, has a number-average molecular weight of 260 to 8000 g/mol and has an average OH functionality of 1.0 to 6.0. A) a polyisocyanate component having an average functionality of 2.0 to 5.0 and a linear-aliphatically attached isocyanate group content (calculated as NCO; molecular weight = 42) of 8.0% to 27.0% by weight is reacted with B) 2 to 80% by weight, based on the total amount of components A) and B) employed, of at least one hydroxyurethane which is based on a cycloaliphatic di- and/or polyisocyanate, is free from isocyanate groups, optionally contains urea groups, has a number-average molecular weight of 260 to 8000 g/mol and has an average OH functionality of 1.0 to 6.0.
An anti-KPC-type carbapenemase antibody, wherein the anti-KPC-type carbapenemase antibody is: an antibody 1HG11 comprising a light chain variable region and a heavy chain variable region, wherein the light chain variable region comprises complementary-determining region 1 shown in SEQ ID NO: 1, CDR2 shown in SEQ ID NO: 2, and CDR3 shown in SEQ ID NO: 3; and the heavy chain variable region comprises CDR1 shown in SEQ ID NO: 4, CDR2 shown in SEQ ID NO: 5, and CDR3 shown in SEQ ID NO: 6, the light chain variable region has an amino acid sequence shown in SEQ ID NO: 7, and the heavy chain variable region has an amino acid sequence shown in SEQ ID NO: 9; or, an antibody 1HD6 comprising a light chain variable region and a heavy chain variable region, wherein the light chain variable region comprises CDR1 shown in SEQ ID NO: 11, CDR2 shown in SEQ ID NO: 12, and CDR3 shown in SEQ ID NO: 13; and the heavy chain variable region comprises CDR1 shown in SEQ ID NO: 14, CDR2 shown in SEQ ID NO: 15, and CDR3 shown in SEQ ID NO: 16, the light chain variable region has an amino acid sequence shown in SEQ ID NO: 17, and the heavy chain variable region has an amino acid sequence shown in SEQ ID NO: 19.
A chopper assembly, comprising; a blade assembly disposed within a housing having a discharge port; a discharge conduit mounted to the housing and in communication with the discharge port; and characterized by a first beater and a second beater rotatably mounted within the discharge conduit, wherein the discharge conduit has a bottom wall with a first door positioned below the first beater and a second door positioned below the second beater, wherein the second door pivots upwardly between the first beater and the second beater. a blade assembly disposed within a housing having a discharge port; a discharge conduit mounted to the housing and in communication with the discharge port; and characterized by a first beater and a second beater rotatably mounted within the discharge conduit, wherein the discharge conduit has a bottom wall with a first door positioned below the first beater and a second door positioned below the second beater, wherein the second door pivots upwardly between the first beater and the second beater.
A method of joining metal members (1; 2) comprising: joining by heating and pressurizing a plurality of metal members (1; 2) to each other with a sheet sandwiched between joining surfaces of the metal members (1; 2), wherein aluminum or an aluminum alloy is used as the metal members (1; 2), and wherein a sheet made of any one of zinc, copper and magnesium is used as the metal sheet, and being characterised in that the sheet is obtained by forming an organic acid metal salt film on the surface of a metal sheet joining by heating and pressurizing a plurality of metal members (1; 2) to each other with a sheet sandwiched between joining surfaces of the metal members (1; 2), wherein aluminum or an aluminum alloy is used as the metal members (1; 2), and wherein a sheet made of any one of zinc, copper and magnesium is used as the metal sheet,
A method performed by a head-mounted computing device (10; 900), the method comprising: capturing an image of a three-dimensional environment external to the head-mounted computing device, the captured image including at least a portion of a field of view of a user through an at least partially see-through display of the head-mounted computing device; characterized by: identifying a first surface (406; 601) within the captured image that is eligible for color fill operation, based on similarities in color parameters of contiguous pixels (502, 504) in the captured image; receiving a color fill request via user input at the head-mounted computing device, the request being for a predetermined color; and performing a color fill operation on the first identified surface in response to receiving the color fill request by (a) generating a fill hologram (600; 700) having the predetermined color and a shape that conforms to the shape of the first identified surface, (b) displaying the fill hologram in a world-locked manner so as to occlude the first identified surface as viewed through the see-through holographic display of the head-mounted display device even when the perspective of the head-mounted computing device changes. identifying a first surface (406; 601) within the captured image that is eligible for color fill operation, based on similarities in color parameters of contiguous pixels (502, 504) in the captured image; receiving a color fill request via user input at the head-mounted computing device, the request being for a predetermined color; and performing a color fill operation on the first identified surface in response to receiving the color fill request by (a) generating a fill hologram (600; 700) having the predetermined color and a shape that conforms to the shape of the first identified surface, (b) displaying the fill hologram in a world-locked manner so as to occlude the first identified surface as viewed through the see-through holographic display of the head-mounted display device even when the perspective of the head-mounted computing device changes.
Circuit for an emergency lighting device, comprising: - output terminals for driving emergency lighting means, - a storage unit for electric energy, such as a battery, - input terminals (2; 2a, 2b) for being supplied with an AC voltage, - a driving circuitry for driving the emergency lighting means, when connected to the output terminals, from the energy storage unit in an emergency state in which the AC voltage fails, and an AC/DC converter connected to the input terminals (2a, 2b), characterized in that the circuit comprises a constant current control/regulator connected to the AC/DC converter, and in that in a non-emergency in which the AC voltage is present the circuit is configured to be selectively put in at least the following states: - a maintained mode in which the constant current control/regulator feeds a constant current through the emergency lighting means, when connected to the output terminals, and to the energy storage unit in order to charge the energy storage unit, such that the emergency lighting means are operated during charging of the energy storage unit; and - a non-maintained mode in which the constant current control/regulator feeds a constant current to the energy storage unit in order to charge the energy storage unit without feeding the constant current through the emergency lighting means such that the emergency lighting means are not operated during charging of the energy storage unit. - output terminals for driving emergency lighting means, - a storage unit for electric energy, such as a battery, - input terminals (2; 2a, 2b) for being supplied with an AC voltage, - a driving circuitry for driving the emergency lighting means, when connected to the output terminals, from the energy storage unit in an emergency state in which the AC voltage fails, - a maintained mode in which the constant current control/regulator feeds a constant current through the emergency lighting means, when connected to the output terminals, and to the energy storage unit in order to charge the energy storage unit, such that the emergency lighting means are operated during charging of the energy storage unit; and - a non-maintained mode in which the constant current control/regulator feeds a constant current to the energy storage unit in order to charge the energy storage unit without feeding the constant current through the emergency lighting means such that the emergency lighting means are not operated during charging of the energy storage unit.
Motor vehicle with a bumper assembly, comprising a cross member, which is coupled to the motor vehicle by means of crash boxes, wherein the cross member is configured as a hollow profile open on one side, wherein the cross member is formed in one piece and with material uniformity with end sections, in particular as a sheet metal formed component, wherein the cross member is configured in its end sections so as to extend obliquely downwards in relation to the vertical direction (z), characterized in that in the transverse direction of the motor vehicle at least half a wheel is covered by one end of the cross member in such a way that in the event of a crash an additional load path 19) results in longitudinal direction of the motor vehicle, wherein the opening of the hollow profile points away from the motor vehicle oriented in the longitudinal direction of the motor vehicle.
Use of a regulatory protein RS1 fragment or a nucleic acid molecule encoding said regulatory protein RS1 fragment for the preparation of a pharmaceutical composition for the amelioration, prevention and/or treatment of a metabolic disease or a secondary disorder caused by a pathological modification of homeostasis, wherein said RS1 fragment is selected from the group consisting of the fragments: (a) Q-C-P; (b) Q-N-E-Q-C-P; (c) Q-C-P-Q-V-S; (d) Q-N-E-Q-C-P-Q-V-S; (e) Q-N-E-Q-C-P-Q-V-S-F; (f) Q-S-P; (g) S-S-G-Q-S-P; (h) Q-S-P-D-V-G; (i) S-S-G-Q-S-P-D-V-G; (j) P-T-D-Q-S-P; (k) Q-S-P-A-M-P; (l) P-T-D-Q-S-P-A-M-P; (m) Q-P-P; (n) Q-D-L-Q-P-P; (o) Q-P-P-E-T-N; (p) Q-D-L-Q-P-P-E-T-N; and (q) Q-T-P, and wherein said disease or disorder is obesity, diabetes and/or hyperglycaemia. (a) Q-C-P; (b) Q-N-E-Q-C-P; (c) Q-C-P-Q-V-S; (d) Q-N-E-Q-C-P-Q-V-S; (e) Q-N-E-Q-C-P-Q-V-S-F; (f) Q-S-P; (g) S-S-G-Q-S-P; (h) Q-S-P-D-V-G; (i) S-S-G-Q-S-P-D-V-G; (j) P-T-D-Q-S-P; (k) Q-S-P-A-M-P; (l) P-T-D-Q-S-P-A-M-P; (m) Q-P-P; (n) Q-D-L-Q-P-P; (o) Q-P-P-E-T-N; (p) Q-D-L-Q-P-P-E-T-N; and (q) Q-T-P,
A method, comprising: providing a polyphase waveguide probe comprising a plurality of charge terminals, arranging the plurality of charge terminals of the polyphase waveguide probe above a lossy conducting medium, each one of the plurality of charge terminals being disposed at a respective different height above the lossy conducting medium, wherein the plurality of charge terminals are coupled to an excitation source; exciting the plurality of charge terminals via the excitation source, the excitation generating electromagnetic fields which are substantially mode-matched to a Zenneck surface wave mode of the lossy conductive medium and that synthesize a wave front incident at a complex Brewster angle ( ψ i,B) associated with the lossy conducting medium; transmitting energy in a form of a guided surface wave along a surface of the lossy conductive medium generated by the polyphase waveguide probe in the Zenneck surface wave mode. providing a polyphase waveguide probe comprising a plurality of charge terminals, arranging the plurality of charge terminals of the polyphase waveguide probe above a lossy conducting medium, each one of the plurality of charge terminals being disposed at a respective different height above the lossy conducting medium, wherein the plurality of charge terminals are coupled to an excitation source; exciting the plurality of charge terminals via the excitation source, the excitation generating electromagnetic fields which are substantially mode-matched to a Zenneck surface wave mode of the lossy conductive medium and that synthesize a wave front incident at a complex Brewster angle ( ψ i,B) associated with the lossy conducting medium; transmitting energy in a form of a guided surface wave along a surface of the lossy conductive medium generated by the polyphase waveguide probe in the Zenneck surface wave mode.
A continuous method of making ready to use aqueous soy binders comprising extruding in a twin screw extruder wet non-water soluble soy flour in grind phase mixing and downstream including in extrusion a polycarboxy emulsion copolymer in distributive phase mixing, such that in the binders the amount of soy flour solids ranges from 51 to 95 wt.%, based on the total weight of binder solids, the amount of polycarboxy emulsion copolymer ranges from 5 to 40 wt.%, based on the total weight of binder solids, and, wherein the sieve particle size of the soy flour in the resulting product ranges from 5 to 44 μm.
Vehicle for rotating carousel, comprising means movable by at least one passenger at a detectable speed, means for detecting said speed of said movable means and generating a corresponding signal and means (14, 15) for controlling the lifting of the vehicles as a function of the activation and/or the speed of the movable means, characterized in that said movable means are rotatable hand-operable means and are mounted on a supporting element, said supporting element being fixed on the vehicle by means for adjusting the height and/or position of said movable means with respect to the vehicle.
A pharmaceutical composition containing a pharmaceutically acceptable carrier and (a) a parvovirus H-1 (H-1 PV) variant showing higher anti-tumour potential compared to the wild type parvovirus comprising the amino acid sequences shown in Fig. 11, wherein said variant is characterized by (i) the substitution(s) at position Lys96 of NS-2 by a hydrophilic polar amino acid and/or at position Leu103 of NS-2 by a neutral non-polar amino acid, or (ii) an in-frame deletion in the left-hand part of the parvovirus genome affecting both the central part of NS2 and the C-terminal part of the NS-1 protein sequences, wherein said deletion is from nt 2022 to 2135, in the nucleotide sequence shown in Figure 11, resulting in the translation of an NS-1 protein having a deletion of aa 587 - 624 and an NS-2 protein having a deletion of aa 96 - 133, or (b) a DNA coding for said parvovirus variant of (a), or (c) an expression vector comprising the DNA of (b), or (d) a host cell containing the expression vector of (c) producing said parvovirus variant of (a) for use in a method of treating cancer. (a) a parvovirus H-1 (H-1 PV) variant showing higher anti-tumour potential compared to the wild type parvovirus comprising the amino acid sequences shown in Fig. 11, wherein said variant is characterized by (i) the substitution(s) at position Lys96 of NS-2 by a hydrophilic polar amino acid and/or at position Leu103 of NS-2 by a neutral non-polar amino acid, or (ii) an in-frame deletion in the left-hand part of the parvovirus genome affecting both the central part of NS2 and the C-terminal part of the NS-1 protein sequences, wherein said deletion is from nt 2022 to 2135, in the nucleotide sequence shown in Figure 11, resulting in the translation of an NS-1 protein having a deletion of aa 587 - 624 and an NS-2 protein having a deletion of aa 96 - 133, or (b) a DNA coding for said parvovirus variant of (a), or (c) an expression vector comprising the DNA of (b), or (d) a host cell containing the expression vector of (c) producing said parvovirus variant of (a)
A multi-display apparatus, comprising: a plurality of display panels (110, 120) for displaying images; and a stepped portion formed in at least one of a pair of adjacent display panels of the plurality of display panels (110, 120) so as to be indented in a thickness direction of the at least one display panel, wherein each of the pair of adjacent display panels is engaged with each other in the stepped portion, and the stepped portion is formed in an edge of a rear surface of one of the pair of display panels, and wherein an edge of a front surface of the other display panel of the pair of display panels is disposed in the stepped portion. a plurality of display panels (110, 120) for displaying images; and a stepped portion formed in at least one of a pair of adjacent display panels of the plurality of display panels (110, 120) so as to be indented in a thickness direction of the at least one display panel, wherein each of the pair of adjacent display panels is engaged with each other in the stepped portion, and the stepped portion is formed in an edge of a rear surface of one of the pair of display panels, and wherein an edge of a front surface of the other display panel of the pair of display panels is disposed in the stepped portion.