mhurhangee/ep-ind-claims huggingface dataset:
A family of microporous crystalline metallophosphate materials designated AlPO-57 having a three-dimensional framework of EO 2 -, PO 2 + and at least one of [M 2 + O 2] 2- tetrahedral units and an empirical composition in the as synthesized and anhydrous basis expressed by an empirical formula of: R r M 2+ m EP x Si y O z where M is at least one framework divalent cation selected from the group consisting of alkaline earth and transition metals, "m" is the mole ratio of M to E and varies from 0 to 1.0, R is the organoammonium cation diethyldimethylammonium (DEDMA +), "r" is the mole ratio of R to E and has a value of 0.1 to 2, E is an trivalent element selected from the group consisting of aluminum, gallium, iron, boron and mixtures thereof, "x" is the mole ratio of P to E and has a value of 0.5 to 2.0, "y" is the mole ratio of Si to E and varies from 0 to 1.0, "m" + "y" ≥ 0.1, and "z" is the mole ratio of O to E and has a value determined by the equation: z = 2 • m + r + 3 + 5 • x + 4 • y / 2 and is characterized in that it has the x-ray diffraction pattern having at least the d-spacings and intensities set forth in Table A: Table A 2Θ d(Å) I/I 0 % 7.85 - 7.36 11.25 - 12.00 w 10.49 - 10.11 8.43 - 8.74 m - vs 13.40 - 13.03 6.60 - 6.79 w - m 15.40 - 15.13 5.75 - 5.85 w 17.00 - 16.56 5.21 - 5.35 m - s 19.41 - 18.87 4.57 - 4.70 w - m 20.49 - 20.03 4.33 - 4.43 w 21.09 - 20.35 4.21 - 4.36 w - m 21.66 - 21.24 4.10 - 4.18 m - vs 22.43 - 21.98 3.96 - 4.04 m - vs 23.14 - 22.78 3.84 - 3.90 w - m 26.11 - 25.58 3.41 - 3.48 w 26.91 - 26.35 3.31 - 3.38 w - m 29.16 - 28.68 3.06 - 3.11 m - s 31.94 - 31.36 2.80 - 2.85 m 35.02 - 34.33 2.56 - 2.61 w - m 35.74 - 35.16 2.51 - 2.55 w 42.61 - 41.99 2.12 - 2.15 w 48.93 - 48.10 1.86 - 1.89 w 49.50 - 48.65 1.84 - 1.87 w 50.98 - 50.37 1.79 - 1.81 w 54.94 - 54.23 1.67 - 1.69 w
An implantable medical endoprosthesis delivery system (30; 230) comprising: a first member (36; 236); a second member (34; 234) slidably disposed around at least a portion of the first member (36; 236); a third member (32; 232) disposed around at least a portion the second member (34; 234); and a membrane (40; 244) connected to the first (36; 236) and second members (34; 234); characterised in that the third member (32; 232) is longitudinally fixed relative to the first member (36; 236). a first member (36; 236); a second member (34; 234) slidably disposed around at least a portion of the first member (36; 236); a third member (32; 232) disposed around at least a portion the second member (34; 234); and a membrane (40; 244) connected to the first (36; 236) and second members (34; 234); characterised in that the third member (32; 232) is longitudinally fixed relative to the first member (36; 236).
Railroad comprising two essentially parallel rails (7,8) and a concrete support structure, the support structure comprising projecting rail supports (3,5) which are bound to a concrete base which in turn is supported on the ground or on a foundation, and the rail supports forming an essentially continuous groove between the two rails, the rail supports (3,5) consisting each in a projecting continuous rib or a beam, bound to the concrete base comprising through holes (31,33) oriented transversally to the rail road, preferably arranged one opposite the other, characterized in that the through holes (31,33) progressively narrow down from the outside of the rail road toward the groove comprised between the two rails (7,8).
A contact device for contacting a bus bar having at least two contact faces (3, 4) extending parallel to one another and at a distance from one another, wherein the contact device comprises a clamping unit for applying a clamping force to the first of said contact faces and a contact unit for electrically contacting a second of said contact faces, wherein the clamping unit lies at a distance from the contact unit, such that an intermediate space is provided between the clamping unit and the contact unit, which intermediate space serves to accommodate said bus bar, wherein the clamping unit comprises a clamping element acting on said contact face, which clamping element can be moved onto the contact face in relation to the intermediate space, and wherein the contact unit comprises a contact jaw having a surface facing toward the intermediate space, at least one contact element protruding into the intermediate space, and a terminal element electrically conductively connected to the contact element, characterized in that the contact element has the form of at least one claw having claw portions protruding into the intermediate space, which claw is mounted in a claw mount in the contact jaw, wherein the claw portions comprise said contact face for electrically contacting the bus bar.
A catalyst for hydroisomerization of a hydrocarbon comprising: a support comprising: a calcined zeolite modified with Cs, and having a thermal history that includes heating at 350°C or more; and at least one inorganic oxide selected from the group consisting of alumina, silica, titania, boria, zirconia, magnesia, ceria, zinc oxide, phosphorus oxide, and a composite oxide containing a combination of at least two or more of these oxides; and at least one metal supported on the support and selected from the group consisting of elements belonging to Groups 8 to 10 of the periodic table, molybdenum and tungsten; wherein: the zeolite is prepared from an ion-exchanged zeolite obtained by ion exchange of an organic template-containing zeolite containing an organic template and having a 10-membered ring one-dimensional porous structure in a solution containing ammonium ions and/or protons; and initial heating of the heating at 350°C or more of the thermal history of the zeolite is conducted within a range of 350 to 450°C. a support comprising: a calcined zeolite modified with Cs, and having a thermal history that includes heating at 350°C or more; and at least one inorganic oxide selected from the group consisting of alumina, silica, titania, boria, zirconia, magnesia, ceria, zinc oxide, phosphorus oxide, and a composite oxide containing a combination of at least two or more of these oxides; and a calcined zeolite modified with Cs, and having a thermal history that includes heating at 350°C or more; and at least one inorganic oxide selected from the group consisting of alumina, silica, titania, boria, zirconia, magnesia, ceria, zinc oxide, phosphorus oxide, and a composite oxide containing a combination of at least two or more of these oxides; and at least one metal supported on the support and selected from the group consisting of elements belonging to Groups 8 to 10 of the periodic table, molybdenum and tungsten; wherein: the zeolite is prepared from an ion-exchanged zeolite obtained by ion exchange of an organic template-containing zeolite containing an organic template and having a 10-membered ring one-dimensional porous structure in a solution containing ammonium ions and/or protons; and initial heating of the heating at 350°C or more of the thermal history of the zeolite is conducted within a range of 350 to 450°C.
A method for managing thermal energy generation in a portable computing device having a heterogeneous multi-core processor, the method comprising: monitoring temperature readings uniquely associated with each of a plurality of individual processing cores (222, 224, 226, 228) in the heterogeneous multi-core processor; tracking workloads assigned to each of the plurality of individual processing cores (222, 224, 226, 228); based on the temperature reading associated with each individual processing core(222, 224, 226, 228), determining a performance curve for each, wherein the performance curve represents the relationship between power consumption and workload processing capability for a given individual processing core when operating at a given temperature, wherein the workload processing capability comprises number of Dhrystone iterations required to process a given number of millions of instructions per second, DMIPS; comparing the determined performance curves for each individual processing core (222, 224, 226, 228) to define one or more transition points (405, 410, 415), wherein a transition point is the point at which two of the determined performance curves intersect; and based on one or more of the determined transition points (405, 410, 415), allocating or reallocating workload to one or more of the plurality of individual processing cores (222, 224, 226, 228). monitoring temperature readings uniquely associated with each of a plurality of individual processing cores (222, 224, 226, 228) in the heterogeneous multi-core processor; tracking workloads assigned to each of the plurality of individual processing cores (222, 224, 226, 228); based on the temperature reading associated with each individual processing core(222, 224, 226, 228), determining a performance curve for each, wherein the performance curve represents the relationship between power consumption and workload processing capability for a given individual processing core when operating at a given temperature, wherein the workload processing capability comprises number of Dhrystone iterations required to process a given number of millions of instructions per second, DMIPS; comparing the determined performance curves for each individual processing core (222, 224, 226, 228) to define one or more transition points (405, 410, 415), wherein a transition point is the point at which two of the determined performance curves intersect; and based on one or more of the determined transition points (405, 410, 415), allocating or reallocating workload to one or more of the plurality of individual processing cores (222, 224, 226, 228).
A method of encoding video data, the method comprising: receiving first and second reference coded units of the video data, wherein each of the first and second coded units each comprise respective first and second reference video data units; performing default weighted prediction using default weights to predict a first version of a predicted video data unit of a predicted coded unit of the video data from the first and second reference video data units (102, 104), wherein each of the two reference coded units occur either temporally before or after the predicted coded unit; calculating an offset value for the first version of the predicted video data unit by calculating the difference between an average luma or average chroma of the predicted video data unit and a respective average luma or average chroma of one of the reference video data units; comparing the calculated offset value to a threshold value; selecting, based on the comparison of the calculated offset value to the threshold value, either an implicit weighted prediction mode using weights determined through analysis of the reference coded units or explicit weighted prediction mode using weights explicitly defined and encoded (108, 110); performing the selected mode to predict a second version of the predicted video data unit from the first and second reference video data units (112, 114); and encoding the predicted video data unit only as either the first version or the second version. receiving first and second reference coded units of the video data, wherein each of the first and second coded units each comprise respective first and second reference video data units; performing default weighted prediction using default weights to predict a first version of a predicted video data unit of a predicted coded unit of the video data from the first and second reference video data units (102, 104), wherein each of the two reference coded units occur either temporally before or after the predicted coded unit; calculating an offset value for the first version of the predicted video data unit by calculating the difference between an average luma or average chroma of the predicted video data unit and a respective average luma or average chroma of one of the reference video data units; comparing the calculated offset value to a threshold value; selecting, based on the comparison of the calculated offset value to the threshold value, either an implicit weighted prediction mode using weights determined through analysis of the reference coded units or explicit weighted prediction mode using weights explicitly defined and encoded (108, 110); performing the selected mode to predict a second version of the predicted video data unit from the first and second reference video data units (112, 114); and encoding the predicted video data unit only as either the first version or the second version.
Industrial truck comprising: - at least one controller; - at least one operating component (28, 30); - at least one operating device which can be operated by an operator of the industrial truck for controlling the at least one operating component (28, 30); - a bus system configured for data communication between the controller, the operating device and the operating component (28, 30); and - at least one media playback device for use in the industrial truck having the bus system, wherein the media playback device is also configured for data communication via the bus system and is connected thereto and can be operated by means of the operating device which is associated with the industrial truck and which sends control commands via the bus system to the media playback device, characterized in that the media playback device comprises at least one microphone and one loudspeaker (104a, 104b, 106) and can be used as a hands-free device and/or the media playback device is configured to reduce ambient noise by active noise cancellation and/or the media playback device is configured to imitate a desired engine noise. - at least one controller; - at least one operating component (28, 30); - at least one operating device which can be operated by an operator of the industrial truck for controlling the at least one operating component (28, 30); - a bus system configured for data communication between the controller, the operating device and the operating component (28, 30); and - at least one media playback device for use in the industrial truck having the bus system, wherein the media playback device is also configured for data communication via the bus system and is connected thereto and can be operated by means of the operating device which is associated with the industrial truck and which sends control commands via the bus system to the media playback device, characterized in that the media playback device comprises at least one microphone and one loudspeaker (104a, 104b, 106) and can be used as a hands-free device and/or the media playback device is configured to reduce ambient noise by active noise cancellation and/or the media playback device is configured to imitate a desired engine noise.
A method for continuous recognition of gestures of a user of a handheld mobile device provided with a motion sensor assembly provided with a gyrometer, the method comprising steps consisting of, for at least one gyrometer measuring signal over a time window: - detecting a candidate gesture; and - comparing said candidate gesture with a set of predetermined gestures; said candidate gesture detection step including substeps consisting of: - calculating a first value of a norm of an integral of the gyrometer signal on said gesture as a parameter indicative of the symmetry of the gesture with respect to at least one axis; - calculating a second value of a parameter indicative of the energy of the gesture along at least one axis, and - comparing if said first value is less than or equal to a first threshold (T sym) and if said second value is greater than or equal to a second threshold (T nrg), in which case, detecting the candidate gesture and comparing it to the set of predetermined gestures. - detecting a candidate gesture; and - comparing said candidate gesture with a set of predetermined gestures; - calculating a first value of a norm of an integral of the gyrometer signal on said gesture as a parameter indicative of the symmetry of the gesture with respect to at least one axis; - calculating a second value of a parameter indicative of the energy of the gesture along at least one axis, and - comparing if said first value is less than or equal to a first threshold (T sym) and if said second value is greater than or equal to a second threshold (T nrg), in which case, detecting the candidate gesture and comparing it to the set of predetermined gestures.
A wellbore ranging system comprising: a first wellbore having a first end proximate a wellhead at the surface of a formation and a second, distal end disposed along a portion of a reference axis coaxially extensive with at least a portion of the first wellbore, the reference axis having a reference point thereon, wherein an elongated conductive member is disposed within at least a portion of the first wellbore; a current injection system comprising a source of alternating current at the surface, an emitter electrode, and a return electrode, wherein emitter electrode is at a location remote from the return electrode and the return electrode is placed on the surface at a location that substantially minimizes the distance between the return electrode and the reference point; the emitter electrode injecting alternating current from the source of alternating current to the conductive member such that current flows between the conductive member and the return electrode thereby resulting in an electromagnetic field emanating from conductive member; a second wellbore extending from the surface; and an EM sensor disposed within the second wellbore to detect the electromagnetic field. a first wellbore having a first end proximate a wellhead at the surface of a formation and a second, distal end disposed along a portion of a reference axis coaxially extensive with at least a portion of the first wellbore, the reference axis having a reference point thereon, wherein an elongated conductive member is disposed within at least a portion of the first wellbore; a current injection system comprising a source of alternating current at the surface, an emitter electrode, and a return electrode, wherein emitter electrode is at a location remote from the return electrode and the return electrode is placed on the surface at a location that substantially minimizes the distance between the return electrode and the reference point; the emitter electrode injecting alternating current from the source of alternating current to the conductive member such that current flows between the conductive member and the return electrode thereby resulting in an electromagnetic field emanating from conductive member; a second wellbore extending from the surface; and an EM sensor disposed within the second wellbore to detect the electromagnetic field.
A temperature elevating apparatus of a secondary battery comprising: a ripple generator (20;22) connected to a secondary battery, configured to generate a ripple current of a predetermined frequency in said secondary battery; and a controller (30;70) for controlling said ripple generator in such manner that a temperature of said secondary battery is elevated by generating said ripple current in said secondary battery, characterized in that said ripple generator includes a switching element (Q1,Q2) and is configured for generating said ripple current in said secondary battery by turning ON/OFF said switching element, said controller includes: a ripple frequency setting part which is configured to set, as said predetermined frequency, a frequency in a frequency region where an absolute value of an impedance of said secondary battery relatively decreases, based on frequency characteristics of the impedance of said secondary battery; and a signal generating part (34,36) which is configured to generate a signal for turning ON/OFF said switching element at said predetermined frequency set by said ripple frequency setting part and to output the generated signal to said switching element. a ripple generator (20;22) connected to a secondary battery, configured to generate a ripple current of a predetermined frequency in said secondary battery; and a controller (30;70) for controlling said ripple generator in such manner that a temperature of said secondary battery is elevated by generating said ripple current in said secondary battery, characterized in that said ripple generator includes a switching element (Q1,Q2) and is configured for generating said ripple current in said secondary battery by turning ON/OFF said switching element, said controller includes: a ripple frequency setting part which is configured to set, as said predetermined frequency, a frequency in a frequency region where an absolute value of an impedance of said secondary battery relatively decreases, based on frequency characteristics of the impedance of said secondary battery; and a signal generating part (34,36) which is configured to generate a signal for turning ON/OFF said switching element at said predetermined frequency set by said ripple frequency setting part and to output the generated signal to said switching element. a ripple frequency setting part which is configured to set, as said predetermined frequency, a frequency in a frequency region where an absolute value of an impedance of said secondary battery relatively decreases, based on frequency characteristics of the impedance of said secondary battery; and a signal generating part (34,36) which is configured to generate a signal for turning ON/OFF said switching element at said predetermined frequency set by said ripple frequency setting part and to output the generated signal to said switching element.
A method of making a shaped glass article, comprising: (a) providing a flat glass sheet; (b) providing a mold having a mold cavity defined by a shaping surface, the shaping surface having a surface profile of the shaped glass article; (c) providing at least one edge alignment pin on the mold at an edge of the shaping surface; (d) leaning the glass sheet against the edge of the shaping surface such that an edge of the glass sheet abuts the edge alignment pin; tilting the mold so that the end of the glass sheet abutting the edge alignment pin latches onto the edge alignment pin by gravity; (e) heating the glass sheet; (f) sagging the glass sheet onto the shaping surface of the mold so that the glass sheet assumes the surface profile of the shaped glass article and thereby form the shaped glass article, wherein the edge alignment pin aligns the edge of the glass sheet with the mold cavity as the glass sheet sags onto the shaping surface of the mold; and (g) removing the shaped glass article from the mold. (a) providing a flat glass sheet; (b) providing a mold having a mold cavity defined by a shaping surface, the shaping surface having a surface profile of the shaped glass article; (c) providing at least one edge alignment pin on the mold at an edge of the shaping surface; (d) leaning the glass sheet against the edge of the shaping surface such that an edge of the glass sheet abuts the edge alignment pin; tilting the mold so that the end of the glass sheet abutting the edge alignment pin latches onto the edge alignment pin by gravity; (e) heating the glass sheet; (f) sagging the glass sheet onto the shaping surface of the mold so that the glass sheet assumes the surface profile of the shaped glass article and thereby form the shaped glass article, wherein the edge alignment pin aligns the edge of the glass sheet with the mold cavity as the glass sheet sags onto the shaping surface of the mold; and (g) removing the shaped glass article from the mold.