mhurhangee/ep-ind-claims huggingface dataset:
A method for purifying nucleic acids from a sample containing nucleic acids to be purified, wherein the method comprises the following steps conducted in the order i) - iv): i) contacting the sample with a solid phase material having a glass surface in presence of a binding buffer containing a chaotropic salt to bind the nucleic acids to the glass surface and obtain a solid phase material having the nucleic acids bound to its glass surface; ii) washing the solid phase material having the nucleic acids bound to its glass surface with a first wash buffer containing a C2-C4 aliphatic alcohol; iii) washing the solid phase material having the nucleic acids bound to its glass surface with a final wash buffer comprising at least about 50wt-% dimethyl sulfoxide; and after step iii) iv) eluting the nucleic acids from the glass surface with an elution buffer to provide purified nucleic acids. i) contacting the sample with a solid phase material having a glass surface in presence of a binding buffer containing a chaotropic salt to bind the nucleic acids to the glass surface and obtain a solid phase material having the nucleic acids bound to its glass surface; ii) washing the solid phase material having the nucleic acids bound to its glass surface with a first wash buffer containing a C2-C4 aliphatic alcohol; iii) washing the solid phase material having the nucleic acids bound to its glass surface with a final wash buffer comprising at least about 50wt-% dimethyl sulfoxide; and after step iii) iv) eluting the nucleic acids from the glass surface with an elution buffer to provide purified nucleic acids.
A data processing method performed by a computer for judging implant orientation data representing an orientation of a first implant part relative to a first bone, the first implant part being part of an implant pair which further comprises a second implant part for a second bone, the implant pair forming an implant joint and being envisaged to be implanted in a patient, comprising the steps of: - acquiring the implant orientation data, - acquiring second implant orientation data representing the orientation of the second implant part relative to the second bone, - acquiring implant shape data representing the shapes of the first and second implant parts, - acquiring activity data representing at least one desired activity of the patient to be possible after implanting the implant, wherein each desired activity has an associated range of motion between the first bone and the second bone, - calculating a range of motion volume, which represents possible orientations between the first bone and the second bone over three rotational axes, from the implant orientation data, the second implant orientation data and the implant shape data, and - judging the implant orientation data to be feasible if the ranges of motion of all desired activities lie within the range of motion volume; characterized by - displaying the range of motion volume together with the range(s) of motion corresponding to the at least one desired activity. - acquiring the implant orientation data, - acquiring second implant orientation data representing the orientation of the second implant part relative to the second bone, - acquiring implant shape data representing the shapes of the first and second implant parts, - acquiring activity data representing at least one desired activity of the patient to be possible after implanting the implant, wherein each desired activity has an associated range of motion between the first bone and the second bone, - calculating a range of motion volume, which represents possible orientations between the first bone and the second bone over three rotational axes, from the implant orientation data, the second implant orientation data and the implant shape data, and - judging the implant orientation data to be feasible if the ranges of motion of all desired activities lie within the range of motion volume; characterized by - displaying the range of motion volume together with the range(s) of motion corresponding to the at least one desired activity.
A machine for installing at least two catenary cables, such as a contact wire and/or a carrying cable of an overhead line of a track, with a first guiding device provided for operation in a first working direction of the machine, and a second guiding device - provided for operation in a second working direction of the machine - which is spaced from the first guiding device in the longitudinal direction of the machine, wherein each guiding device (15, 18) has cable rollers, adjustable in each case by means of a vertical adjustment drive, for guiding the catenary cables reeled off from storage drums, as well as tensile stress devices associated with the storage drums and spaced from these in the longitudinal direction of the machine, characterized in that the storage drums are arranged one immediately following the other with regard to the longitudinal direction of the machine, and that the tensile stress devices are arranged adjoining the storage drums, and that, between each storage drum and the associated tensile stress device, a deflection device is arranged which has a first cable guiding unit, arranged above the storage drum with regard to a vertical, for the first working direction and a second cable guiding unit, arranged below the storage drum with regard to the vertical, for the second working direction.
A system information transmission method performed by a first access device, comprising: broadcasting a second system information to a mobile device, wherein the second system information does not include cell reselection information but includes cell access information corresponding to the first access device and information used to instruct the mobile device to determine a specified time-frequency location of a random access preamble sequence to be used to indicate that the mobile device needs to obtain a first system information wherein the first system information comprises the cell reselection information related to the first access device; receiving a random access message sent by the mobile device, wherein the random access message includes a random access preamble message; and sending the first system information to the mobile device based on the random access message when the random access message received from the mobile device uses the specified time-frequency location of the random access preamble sequence. broadcasting a second system information to a mobile device, wherein the second system information does not include cell reselection information but includes cell access information corresponding to the first access device and information used to instruct the mobile device to determine a specified time-frequency location of a random access preamble sequence to be used to indicate that the mobile device needs to obtain a first system information wherein the first system information comprises the cell reselection information related to the first access device; receiving a random access message sent by the mobile device, wherein the random access message includes a random access preamble message; and sending the first system information to the mobile device based on the random access message when the random access message received from the mobile device uses the specified time-frequency location of the random access preamble sequence.
A retention member for holding a rollable projection screen, the retention member configured, in use, such that contact is achieved on both surfaces of the screen, such that the retention member is bonded to the screen without requiring holes to be created in the screen, the retention member additionally comprising biasing means configured, in use, to bias the retention member away from a neighbouring retention member, the biasing means being adjustable to vary the bias applied to the retention member, wherein the biasing means comprise mechanical means for manually increasing a biasing force exerted between the retention member and the neighbouring retention member.
A programmable interface circuit to adaptively communicate signals between a controller (301, 310) and a component (320, 330, 340) of a machine, the programmable interface circuit comprising: a plurality of interconnects configured to receive programming inputs from the controller; a signaling channel (452, 454) configured to carry signals between the programmable interface circuit and the component (320, 330, 340); a programmable analog I/O circuit (410, 610, 612) configured to couple to the signaling channel and to receive a first analog signal from the controller (301, 310); a programmable digital I/O circuit configured to couple to the signaling channel and to receive a first digital signal from the controller (301, 310); and a current-sensing circuit configured to sense an amount of current flowing in the signaling channel, the current-sensing circuit being selectable for feedback control of an output from the programmable analog I/O circuit, wherein the programmable interface circuit is programmable during operation, based on at least a first one of the programming inputs applied to the plurality of interconnects, to provide a second analog signal to the signaling channel (452, 454) based on the first analog signal or a second digital signal to the signaling channel based on the first digital signal. a plurality of interconnects configured to receive programming inputs from the controller; a signaling channel (452, 454) configured to carry signals between the programmable interface circuit and the component (320, 330, 340); a programmable analog I/O circuit (410, 610, 612) configured to couple to the signaling channel and to receive a first analog signal from the controller (301, 310); a programmable digital I/O circuit configured to couple to the signaling channel and to receive a first digital signal from the controller (301, 310); and a current-sensing circuit configured to sense an amount of current flowing in the signaling channel, the current-sensing circuit being selectable for feedback control of an output from the programmable analog I/O circuit, wherein the programmable interface circuit is programmable during operation, based on at least a first one of the programming inputs applied to the plurality of interconnects, to provide a second analog signal to the signaling channel (452, 454) based on the first analog signal or a second digital signal to the signaling channel based on the first digital signal.
A method of reducing distortion in a Vienna rectifier including a controller and PWM modulator, the method comprising the steps of: a) sensing a voltage value ([Vdc_p] for an upper half of a DC bus associated with the rectifier and a voltage value, [Vdc_n] for a lower half of the DC bus) of the Vienna rectifier; b) calculating scale factors ([Vdc_px], [Vdc_nx]) for the sensed voltage values for the respective upper half and lower half by determining an average of the sensed voltage values for the upper and lower half and dividing each of the sensed voltage values by the average; c) rescaling each phase of reference signals for a pulse width modulator using the respective upper and lower scale factors d) obtaining gate driver signals for each phase of the rectifier as a function of each of the rescaled reference signals using upper side and lower side triangular signals; wherein the step of calculating scale factors for the sensed voltage values includes the step of determining an average of the sensed voltage values; and wherein the step of determining an average of the sensed voltage values includes the steps of summing the sensed voltage values and dividing the sum by two; And wherein the step of rescaling reference signals comprises multiplying each reference signal by each of the scale factors ([Vdc_px], [Vdc_nx]) to produce, for each reference signal, a positive and a negative rescaled signal to a pulse width modulator to obtain a gate driver signal for a phase of the rectifier or for power semiconductor switches of the rectifier. a) sensing a voltage value ([Vdc_p] for an upper half of a DC bus associated with the rectifier and a voltage value, [Vdc_n] for a lower half of the DC bus) of the Vienna rectifier; b) calculating scale factors ([Vdc_px], [Vdc_nx]) for the sensed voltage values for the respective upper half and lower half by determining an average of the sensed voltage values for the upper and lower half and dividing each of the sensed voltage values by the average; c) rescaling each phase of reference signals for a pulse width modulator using the respective upper and lower scale factors d) obtaining gate driver signals for each phase of the rectifier as a function of each of the rescaled reference signals using upper side and lower side triangular signals;
A method of producing 3-fucosyllactose comprising culturing in a medium supplemented with lactose and glucose a recombinant Corynebacterium glutamicum transformed to express ex-1,3-fucosyltransferase, GDP-D-mannose-4,6-dehydratase, GDP-L-fucose synthase, lactose permease, wherein the recombinant Corynebacterium glutamicum has phosphomannomutase and GTP-mannose-1-phosphate guanylyltransferase.
A surface-coated cutting tool having a rake face and a flank face, comprising: a base material; and a coating formed on the base material, the coating including an α-Al 2 O 3 layer, the α-Al 2 O 3 layer containing a plurality of crystal grains of α-Al 2 O 3, a grain boundary of the crystal grains including a CSL grain boundary and a general grain boundary, the α-Al 2 O 3 layer on a rake face side showing orientation, in the α-Al 2 O 3 layer on the rake face side, a length L R3 of a Σ3 crystal grain boundary in the CSL grain boundary exceeding 80% of a length L R3-29 of a Σ3-29 crystal grain boundary and being not lower than 10% and not higher than 50% of a total length L R of all grain boundaries which is a sum of the length L R3-29 and a length L RG of the general grain boundary, the α-Al 2 O 3 layer on a flank face side showing orientation, in the α-Al 2 O 3 layer on the flank face side, a length L F3 of a Σ3 crystal grain boundary in the CSL grain boundary exceeding 80% of a length L F3-29 of a Σ3-29 crystal grain boundary and being not lower than 10% and not higher than 50% of a total length LF of all grain boundaries which is a sum of the length L F3-29 and a length L FG of the general grain boundary, and a ratio L R3 /L R3-29 of the length L R3 to the length L R3-29 being lower than a ratio L F3 /L F3-29 of the length L F3 to the length L F3-29. a base material; and a coating formed on the base material, the coating including an α-Al 2 O 3 layer, the α-Al 2 O 3 layer containing a plurality of crystal grains of α-Al 2 O 3, a grain boundary of the crystal grains including a CSL grain boundary and a general grain boundary, the α-Al 2 O 3 layer on a rake face side showing orientation, in the α-Al 2 O 3 layer on the rake face side, a length L R3 of a Σ3 crystal grain boundary in the CSL grain boundary exceeding 80% of a length L R3-29 of a Σ3-29 crystal grain boundary and being not lower than 10% and not higher than 50% of a total length L R of all grain boundaries which is a sum of the length L R3-29 and a length L RG of the general grain boundary, the α-Al 2 O 3 layer on a flank face side showing orientation, in the α-Al 2 O 3 layer on the flank face side, a length L F3 of a Σ3 crystal grain boundary in the CSL grain boundary exceeding 80% of a length L F3-29 of a Σ3-29 crystal grain boundary and being not lower than 10% and not higher than 50% of a total length LF of all grain boundaries which is a sum of the length L F3-29 and a length L FG of the general grain boundary, and a ratio L R3 /L R3-29 of the length L R3 to the length L R3-29 being lower than a ratio L F3 /L F3-29 of the length L F3 to the length L F3-29.
A wiring harness fixing structure, comprising: a holding member that is formed into a trough shape with an opening provided on one face, a bottom facing the opening and lateral walls extending from both ends of the bottom and is configured to hold a part or all of a wiring harness; and an attachment fitting configured to attach and fix the holding member to an attachment object, so that the opening is oriented to an outer face of the attachment object, wherein the holding member has protrusions provided on an inner side of the distal end on the opening side and protruding in a direction in which the opening is closed, and a respective one of said protrusions is provided at least at each of two longitudinal ends of the holding member; characterized in that each protrusion is formed on a plate-shaped deflectable portion that is deflectable outward with respect to the body of the lateral wall of the holding member. a holding member that is formed into a trough shape with an opening provided on one face, a bottom facing the opening and lateral walls extending from both ends of the bottom and is configured to hold a part or all of a wiring harness; and an attachment fitting configured to attach and fix the holding member to an attachment object, so that the opening is oriented to an outer face of the attachment object, wherein the holding member has protrusions provided on an inner side of the distal end on the opening side and protruding in a direction in which the opening is closed, and a respective one of said protrusions is provided at least at each of two longitudinal ends of the holding member; characterized in that each protrusion is formed on a plate-shaped deflectable portion that is deflectable outward with respect to the body of the lateral wall of the holding member.
A method for manufacturing a lens having a lens portion, the method comprising: (a) providing a substrate comprising a recess in a first surface of the substrate, the recess extending from the first surface of the substrate to a second surface of the substrate thereby defining a hole through the substrate; (b) arranging the substrate and a first mold (124; 130) in contact with each other such that the substrate's recess and the first mold (124; 130) are aligned, wherein the first mold (124; 130) has a portion shaped in accordance with a first desired lens surface; (c) applying a sacrificial material to the substrate, into the recess and into the first mold (124; 130) so that the sacrificial material has a shape in accordance with the first desired lens surface; (d) curing the sacrificial material; (e) removing the first mold (124; 130); (f) applying a lens material to the substrate and to the sacrificial material so that the lens material has a shape in accordance with the first desired lens surface; and (g) providing the final lens portion removing the sacrificial material. (a) providing a substrate comprising a recess in a first surface of the substrate, the recess extending from the first surface of the substrate to a second surface of the substrate thereby defining a hole through the substrate; (b) arranging the substrate and a first mold (124; 130) in contact with each other such that the substrate's recess and the first mold (124; 130) are aligned, wherein the first mold (124; 130) has a portion shaped in accordance with a first desired lens surface; (c) applying a sacrificial material to the substrate, into the recess and into the first mold (124; 130) so that the sacrificial material has a shape in accordance with the first desired lens surface; (d) curing the sacrificial material; (e) removing the first mold (124; 130); (f) applying a lens material to the substrate and to the sacrificial material so that the lens material has a shape in accordance with the first desired lens surface; and (g) providing the final lens portion removing the sacrificial material.
An air purification tent comprising: a tent, at least partly made from a semipermeable flexible material, said tent is intended to be suspended above a platform such that the material is enclosing the platform and an enclosed space is created; an air purification device (3, 19, 39, 30, 70) arranged in the tent, said device comprising an air inlet arranged outside the enclosed space, and an air outlet arranged within the enclosed space; wherein air from outside the tent is flowing through the air purifying device and into the enclosed space such that the enclosed space is filled with pure air, characterized in that the area of the tent surrounding the air purification device consist of a less permeable material than the rest of the tent to prevent short circuiting of clean air in the air treatment device.
A gaiter fitting device comprising a pneumatic actuator operable between a first position and a second position, a plurality of pivotally mounted arms arranged to receive and spread a gaiter and characterised by a feature arranged to permit a pneumatic fluid driving the actuator to escape when the actuator passes a predetermined position between the first and second positions, thereby to limit the pressure of pneumatic fluid driving the actuator, wherein the pneumatic actuator comprises a piston and cylinder (6,11) assembly, and the feature comprises at least one port formed in the cylinder to allow pneumatic fluid to escape from behind the piston.
A technique simulator (10A, 10B, 10C, 10D) for training in a technique using a catheter, the technique simulator (10A, 10B, 10C, 10D) comprising: a flow path (12, 60, 160) configured to contain a liquid that imitates blood; a liquid flow generation member configured to generate flow of the liquid; and a catheter insertion port configured to allow the catheter to be interposed into the flow path (12, 60, 160), wherein the flow path (12, 60, 160) comprises a bifurcated portion (22, 122, 124, 126, 128, 130, 132, 134) that is located downstream of the catheter insertion port and is to be bifurcated into at least two flow paths (12, 60, 160), and a plurality of bifurcated flow paths (12, 60, 160) provided downstream of the bifurcated portion (22, 122, 124, 126, 128, 130, 132, 134), and the plurality of the bifurcated flow paths (12, 60, 160) include a first bifurcated flow path (24, 74) and a second bifurcated flow path (26, 76), the liquid flow generation member is configured to generate a pressure higher than pressures to be applied to the downstream side of the first bifurcated flow path (24, 74) and the downstream side of the second bifurcated flow path (26, 76). characterized in that the technique simulator (10A, 10B, 10C, 10D) further comprises a pressure difference generation member configured to cause a pressure difference to be generated between a downstream side of the first bifurcated flow path (24, 74) and a downstream side of the second bifurcated flow path (26, 76). a flow path (12, 60, 160) configured to contain a liquid that imitates blood; a liquid flow generation member configured to generate flow of the liquid; and a catheter insertion port configured to allow the catheter to be interposed into the flow path (12, 60, 160), wherein the flow path (12, 60, 160) comprises a bifurcated portion (22, 122, 124, 126, 128, 130, 132, 134) that is located downstream of the catheter insertion port and is to be bifurcated into at least two flow paths (12, 60, 160), and a plurality of bifurcated flow paths (12, 60, 160) provided downstream of the bifurcated portion (22, 122, 124, 126, 128, 130, 132, 134), and the plurality of the bifurcated flow paths (12, 60, 160) include a first bifurcated flow path (24, 74) and a second bifurcated flow path (26, 76), the liquid flow generation member is configured to generate a pressure higher than pressures to be applied to the downstream side of the first bifurcated flow path (24, 74) and the downstream side of the second bifurcated flow path (26, 76).
Method for controlling a computer program, wherein a control signal which switches the computer program into a predefined state is sent to the computer program upon detection of an optical marker by an intraoral scanner, wherein the computer program is a CAD/CAM program, wherein the predetermined state is a change of an image field, the deletion of an image region, an image calculation or a restoration calculation.