mhurhangee/patent-ind-claim-en huggingface dataset:
Method for adjustment of a timepiece oscillator (1; 1') comprising a balance , a support and a flexure pivot connecting the balance to the support and guiding the balance in rotation with respect to the support about a virtual axis of rotation, the flexure pivot having, in orthogonal projection in a plane (P1; P2) perpendicular to the virtual axis of rotation, an axis of symmetry (Y) which is also an axis of symmetry for the points where the flexure pivot is joined to the balance , characterised in that the unbalance of the balance is adjusted so that, in orthogonal projection in said plane (P1; P2), the centre of mass (M) of the balance is substantially on the axis of symmetry (Y) and at a position distinct from that (O) of the virtual axis of rotation, the position (O) of the virtual axis of rotation not being modified by said adjustment of the unbalance, said position of the centre of mass (M) being chosen so as to reduce, and preferably render minimal, the dependency of the oscillation frequency with respect to the orientation of gravity for a predetermined amplitude of oscillation.
Holder for mounting a second part on a main structure between car body ends of a rail vehicle, comprising - a first holding structure having a first contact surface , the first holding structure being configured to be attached to the main structure ; - a second holding structure having a second contact surface , the second holding structure being configured to be attached to the second part , and the second holding structure further being arranged to be mounted on the first holding structure with one of the first and second contact surfaces resting on the other; - a fastening device for fastening the second holding structure to the first holding structure to form a mounted state, the first and second contact surfaces being pressed against each other in the mounted state, wherein the first contact surface and the second contact surface are planar surfaces, characterized in that the first and second contact surfaces in the mounted state each extend at a first angle (α) in relation to a horizontal axis (A), said first angle (α) being more than 1 degree and less than 30 degrees, and wherein the fastening device extends in a direction parallel to or coinciding with the horizontal axis (A). - a first holding structure having a first contact surface , the first holding structure being configured to be attached to the main structure ; - a second holding structure having a second contact surface , the second holding structure being configured to be attached to the second part , and the second holding structure further being arranged to be mounted on the first holding structure with one of the first and second contact surfaces resting on the other; - a fastening device for fastening the second holding structure to the first holding structure to form a mounted state, the first and second contact surfaces being pressed against each other in the mounted state, wherein the first contact surface and the second contact surface are planar surfaces, characterized in that the first and second contact surfaces in the mounted state each extend at a first angle (α) in relation to a horizontal axis (A), said first angle (α) being more than 1 degree and less than 30 degrees, and wherein the fastening device extends in a direction parallel to or coinciding with the horizontal axis (A).
A method for producing hexafluoro-1,3-butadiene, the method comprising: conducting a reaction, in a reaction liquid containing a halogenated butane represented by chemical formula, CF 2 X 1 -CFX 2 -CFX 3 -CF 2 X 4 (X 1 , X 2 , X 3 , and X 4 are each independently a halogen atom other than a fluorine atom), zinc, and an organic solvent, to eliminate the halogen atoms other than a fluorine atom, X 1 , X 2 , X 3 , and X 4 , from the halogenated butane, yielding hexafluoro-1,3-butadiene, wherein during the reaction, a concentration of a zinc halide generated by the reaction, in the reaction liquid is not more than a solubility of the zinc halide in the organic solvent. conducting a reaction, in a reaction liquid containing a halogenated butane represented by chemical formula, CF 2 X 1 -CFX 2 -CFX 3 -CF 2 X 4 (X 1 , X 2 , X 3 , and X 4 are each independently a halogen atom other than a fluorine atom), zinc, and an organic solvent, to eliminate the halogen atoms other than a fluorine atom, X 1 , X 2 , X 3 , and X 4 , from the halogenated butane, yielding hexafluoro-1,3-butadiene, wherein during the reaction, a concentration of a zinc halide generated by the reaction, in the reaction liquid is not more than a solubility of the zinc halide in the organic solvent.
A radially expandable stent comprising: a biodegradable polymeric pattern of cylindrical rings and linking struts , the cylindrical rings being connected by the linking struts , markers (70; 80; 90; 100; 128; 146) disposed in depots (62; 76; 84; 102; 120; 144; 154) of the stent, wherein the markers comprise a sufficient radiopacity to be imaged by an imaging technique, wherein the markers (70; 80; 90; 100; 128; 146) are coupled to the stent at least partially by an interference fit between the markers and a portion of an internal surface of the depots, at least some gaps (109; 130; 148) between the markers and the internal surface of the depots include a biocompatible polymeric material that acts as an adhesive for the markers, and wherein the stent includes two or more markers (70; 80; 90; 100; 128; 146) distributed in a manner that facilitates visualization of the stent during and after implantation, and each depot (62; 76; 84; 102; 120; 144; 154) comprises only one marker. a biodegradable polymeric pattern of cylindrical rings and linking struts , the cylindrical rings being connected by the linking struts , markers (70; 80; 90; 100; 128; 146) disposed in depots (62; 76; 84; 102; 120; 144; 154) of the stent, wherein the markers comprise a sufficient radiopacity to be imaged by an imaging technique, wherein the markers (70; 80; 90; 100; 128; 146) are coupled to the stent at least partially by an interference fit between the markers and a portion of an internal surface of the depots, at least some gaps (109; 130; 148) between the markers and the internal surface of the depots include a biocompatible polymeric material that acts as an adhesive for the markers, and wherein the stent includes two or more markers (70; 80; 90; 100; 128; 146) distributed in a manner that facilitates visualization of the stent during and after implantation, and each depot (62; 76; 84; 102; 120; 144; 154) comprises only one marker.
A ribbed reinforcing bar having a circular cross-section core and inclined open crescent-shaped transverse protuberances arranged along its surface in four rows, wherein peaks of the transverse protuberances are arranged in a checkerboard fashion along a spiral line over the core surface, the peaks of adjacent longitudinal rows of transverse protuberances are situated in the bar's inclined axial planes whose adjoining angles of inclination to the axial planes, coinciding with rolling axes of the reinforcing bar, are 20 0 to 70 0 , characterized in that the reinforcing bar is produced by rolling in a two-high mill without a longitudinal rib formation, wherein the inclined open crescent-shaped transverse protuberances are arranged on the core surface such as to form a screw thread usable for anchoring and joining reinforcing bars. peaks of the transverse protuberances are arranged in a checkerboard fashion along a spiral line over the core surface, the peaks of adjacent longitudinal rows of transverse protuberances are situated in the bar's inclined axial planes whose adjoining angles of inclination to the axial planes, coinciding with rolling axes of the reinforcing bar, are 20 0 to 70 0 , characterized in that the reinforcing bar is produced by rolling in a two-high mill without a longitudinal rib formation, wherein the inclined open crescent-shaped transverse protuberances are arranged on the core surface such as to form a screw thread usable for anchoring and joining reinforcing bars.
A procatalyst for the polymerization of olefins, which procatalyst comprises a compound represented by Formula A as an internal electron donor: wherein R is hydrogen or a methyl group.
A system of modular vehicle occupant supports[Figs 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da], wherein said modular occupant supports are in two or more tiers and wherein each tier comprises a plurality of modular occupant supports, and wherein the modular occupant supports in the second tier are offset with regard to the modular occupant supports in the first tier, and wherein the first tier of modular occupant support have direct egress and ingress access to occupants, and wherein egress and ingress to each of the modular occupant supports in the second tier requires a means for elevating the occupant, and wherein means for such elevation for each of said modular occupant supports on the second tier is a set of stairs , characterized by : - said offset of said second tier occupant supports with regard to the first tier occupant supports is lateral with regard to the facing direction of the occupant supports [Figs 1-6D, Fig 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da]; - said stairs being located along a side wall of one of said modular occupant supports on the first tier [Fig 2-2, 1-6D, Fig 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da], thereby providing means for egress and ingress of an occupant in the second tier without limiting space egress and ingress of the occupant in the first tier, said limiting of space being determined by one of both of the extent of offset of the second tier relative to the first tier and the width of the stairs. - said offset of said second tier occupant supports with regard to the first tier occupant supports is lateral with regard to the facing direction of the occupant supports [Figs 1-6D, Fig 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da]; - said stairs being located along a side wall of one of said modular occupant supports on the first tier [Fig 2-2, 1-6D, Fig 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da], thereby providing means for egress and ingress of an occupant in the second tier without limiting space egress and ingress of the occupant in the first tier, said limiting of space being determined by one of both of the extent of offset of the second tier relative to the first tier and the width of the stairs.
An object identification method comprising: feeding an object dispersed in a solvent to a micro-channel ; applying an AC (Alternating Current) voltage to two measurement electrodes provided at the micro-channel and measuring an AC characteristic of the object when the object passes through the micro-channel; and determining a combined impedance and a phase by using the measured AC characteristic; and identifying the object by using the determined combined impedance and the phase; characterized in that parameters corresponding to a resistive component, a ζ-potential, and a dielectric constant, respectively, of the object are determined by using the combined impedance and the phase, the object is identified by using the determined parameters corresponding to the resistive component, the ζ-potential, and the dielectric constant. feeding an object dispersed in a solvent to a micro-channel ; applying an AC (Alternating Current) voltage to two measurement electrodes provided at the micro-channel and measuring an AC characteristic of the object when the object passes through the micro-channel; and determining a combined impedance and a phase by using the measured AC characteristic; and identifying the object by using the determined combined impedance and the phase; characterized in that parameters corresponding to a resistive component, a ζ-potential, and a dielectric constant, respectively, of the object are determined by using the combined impedance and the phase, the object is identified by using the determined parameters corresponding to the resistive component, the ζ-potential, and the dielectric constant. characterized in that parameters corresponding to a resistive component, a ζ-potential, and a dielectric constant, respectively, of the object are determined by using the combined impedance and the phase, the object is identified by using the determined parameters corresponding to the resistive component, the ζ-potential, and the dielectric constant.
Heat exchanger comprising: - a heat-exchange core in which a first fluid and a second fluid circulate; - at least one header tank configured to duct the second fluid from or to the heat-exchange core , said header tank comprising at least a shoulder oriented toward the outside of said header tank , and the header tank comprising at least one header tank corner ; - at least one fastening member for fastening the header tank is positioned at least partly at the periphery of the heat-exchange core and comprises at least one peripheral groove delimited by a base wall and a lateral wall and in which the shoulder of the header tank is at least partially housed, the fastening member comprising: o a rectilinear portion of which the lateral wall is in part extended by at least one upper wall in contact with the shoulder of the header tank; o at least one corner portion facing the corner of the header tank ; characterized in that part of the corner portion faces an upper face of the shoulder opposite to the groove of the fastening member and at a non-zero distance from this upper face so that a space is left between the corner portion and the upper face of the shoulder . - a heat-exchange core in which a first fluid and a second fluid circulate; - at least one header tank configured to duct the second fluid from or to the heat-exchange core , said header tank comprising at least a shoulder oriented toward the outside of said header tank , and the header tank comprising at least one header tank corner ; - at least one fastening member for fastening the header tank is positioned at least partly at the periphery of the heat-exchange core and comprises at least one peripheral groove delimited by a base wall and a lateral wall and in which the shoulder of the header tank is at least partially housed, the fastening member comprising: o a rectilinear portion of which the lateral wall is in part extended by at least one upper wall in contact with the shoulder of the header tank; o at least one corner portion facing the corner of the header tank ; o a rectilinear portion of which the lateral wall is in part extended by at least one upper wall in contact with the shoulder of the header tank; o at least one corner portion facing the corner of the header tank ;
Use of a saponin nano micelle as an aqueous solubilizer or a pharmaceutical carrier of a lipid-soluble compound or composition, wherein the saponin nano micelle is a positive saponin nano micelle, and comprises one or more of saponins represented by formula 1; wherein, R 1 and R 2 are independently -H or a hydrophilic group, wherein the hydrophilic group is -OH or glycosyl, and R 1 and R 2 are not -H at the same time; R 3 is -H or -OH; and R 4 is a group represented by formula 3-1 or formula 4-1; wherein, R 1 and R 2 are independently -H or a hydrophilic group, wherein the hydrophilic group is -OH or glycosyl, and R 1 and R 2 are not -H at the same time; R 3 is -H or -OH; and R 4 is a group represented by formula 3-1 or formula 4-1;
A wind turbine rotary electric machine rotor, the rotor (9; 46) comprising: a tubular structure extending and designed to rotate about an axis of rotation (A) and comprising a cylindrical body and axial ribs ; - a plurality of active segments , each active segment comprising a group of permanent magnets and two magnetic guides on opposite sides of the group of permanent magnets , and being parallel to and arranged about the axis of rotation (A) and fitted to the tubular structure , said axial ribs supporting the active segments ; - a plurality of cooling channels (53; 54), which are formed in the cylindrical body , are completely bounded by the cylindrical body and are configured to be suitable to convey liquid, wherein each cooling channel (53; 54) is parallel to the axis of rotation (A), and extends the full axial length of the tubular structure and - the cooling channels comprise cooling channels in the axial ribs . - a plurality of active segments , each active segment comprising a group of permanent magnets and two magnetic guides on opposite sides of the group of permanent magnets , and being parallel to and arranged about the axis of rotation (A) and fitted to the tubular structure , said axial ribs supporting the active segments ; - a plurality of cooling channels (53; 54), which are formed in the cylindrical body , are completely bounded by the cylindrical body and are configured to be suitable to convey liquid, wherein each cooling channel (53; 54) is parallel to the axis of rotation (A), and extends the full axial length of the tubular structure and - the cooling channels comprise cooling channels in the axial ribs .
A strain gauge for mounting on a surface , the strain gauge comprising first and second mounting pads arranged for securing to respective first and second portions of the surface , characterized in that the first and second mounting pads having respective first and second upstanding walls each arranged to extend away from the surface to a bridging portion extending between the first and second upstanding walls , such that the first and second upstanding walls and the bridging portion generally form a n-shape wherein the bridging portion is arranged to align with the surface when the strain gauge is mounted on the surface , the strain gauge having a strain sensing element secured to one of the first and second upstanding walls ; and wherein when the strain gauge is mounted on the surface the first mounting pad is arranged to extend away from the first upstanding wall along the surface in a first direction, the second mounting pad is arranged to extend away from the second upstanding wall along the surface in a second direction and the first and second directions are opposite one another. characterized in that the first and second mounting pads having respective first and second upstanding walls each arranged to extend away from the surface to a bridging portion extending between the first and second upstanding walls , such that the first and second upstanding walls and the bridging portion generally form a n-shape wherein the bridging portion is arranged to align with the surface when the strain gauge is mounted on the surface , the strain gauge having a strain sensing element secured to one of the first and second upstanding walls ; and wherein when the strain gauge is mounted on the surface the first mounting pad is arranged to extend away from the first upstanding wall along the surface in a first direction, the second mounting pad is arranged to extend away from the second upstanding wall along the surface in a second direction and the first and second directions are opposite one another.
A grinding installation for comminuting grinding material, having a first grinding circuit , which comprises a roller press and a first separator, and having a second grinding circuit , which comprises a dynamic separator and a ball mill , wherein the first separator is in the form of a static separator and is arranged below the roller press , whereas the dynamic separator is provided at the level of the roller press or below the roller press characterized in that a buffer store is provided between the dynamic separator (4, 4") and the ball mill and the grits from the dynamic separator are fed to the ball mill via the buffer store ; wherein the buffer store comprises an overflow connected to the first grinding circuit and/or wherein the arising quantity of grit is adapted to the capacity of the ball mill through influencing of the quantity of the fine material of the static separator. wherein the first separator is in the form of a static separator and is arranged below the roller press , whereas the dynamic separator is provided at the level of the roller press or below the roller press characterized in that a buffer store is provided between the dynamic separator (4, 4") and the ball mill and the grits from the dynamic separator are fed to the ball mill via the buffer store ; wherein the buffer store comprises an overflow connected to the first grinding circuit and/or wherein the arising quantity of grit is adapted to the capacity of the ball mill through influencing of the quantity of the fine material of the static separator.
An article of footwear, comprising: an upper ; an outsole bonded to the upper and having multiple discrete lugs distributed across a bottom exterior surface of the outsole ; and a compressible foam midsole contained within the upper , the midsole being non-destructively removable from the upper , the midsole comprising plurality of raised regions on a top surface configured to receive a plantar face of a foot of a wearer, wherein the midsole rests directly on an interior surface of a lasting element of the upper , characterised in that the outsole , the lasting element , and the midsole are configured so that, in response to a localized upward pressure on one of the lugs , the lug (112-1) is able to move upward while adjacent lugs (112-2, 112-3) are only minimally affected, the lasting element is deformable upward in a localized region above the lug (112-1), and a portion of the top surface of the midsole in the localized region can be forced upward. an upper ; an outsole bonded to the upper and having multiple discrete lugs distributed across a bottom exterior surface of the outsole ; and a compressible foam midsole contained within the upper , the midsole being non-destructively removable from the upper , the midsole comprising plurality of raised regions on a top surface configured to receive a plantar face of a foot of a wearer, wherein the midsole rests directly on an interior surface of a lasting element of the upper , characterised in that the outsole , the lasting element , and the midsole are configured so that, in response to a localized upward pressure on one of the lugs , the lug (112-1) is able to move upward while adjacent lugs (112-2, 112-3) are only minimally affected, the lasting element is deformable upward in a localized region above the lug (112-1), and a portion of the top surface of the midsole in the localized region can be forced upward.