mhurhangee/ep-ind-claims huggingface dataset:
A method of catalyzing a reaction comprising: (a) selecting a first reactant and a second reactant; and (b) combining the first reactant, second reactant, and a Bronsted-acid resin catalyst containing aromatic groups, wherein said resin catalyst is a polymeric crosslinked alkenylaromatic resin, and (c) carrying out a transesterification reaction to form a product; wherein the Bronsted-acid resin catalyst is an ion exchange resin that is sulfonated essentially uniformly throughout the resin, wherein the degree of sulfonation is less than 51% of the aromatic rings of the resin, the variation in sulfur density throughout the resin being within 14% determined by scanning electron microscopy including the EDX sulfur line scan distribution throughout the bead. (a) selecting a first reactant and a second reactant; and (b) combining the first reactant, second reactant, and a Bronsted-acid resin catalyst containing aromatic groups, wherein said resin catalyst is a polymeric crosslinked alkenylaromatic resin, and (c) carrying out a transesterification reaction to form a product;
Roll stand for rolling a metallic rolling material, comprising a first roll housing arranged on a drive side and a second roll housing arranged on a control side, wherein each of the roll housings (3, 5) has at least one receiving opening (6, 7) for a chock (8, 9) for rotatable mounting of an axially non-displaceable roll provided with roll journals, at least two locking plates (11, 12, 13, 14) for locking the chocks (8, 9), wherein a respective one of the locking plates (11, 12, 13, 14) is so arranged at the end of the respective roll housing (3, 5) remote from the roll that the plate (11, 12, 13, 14) covers at least a part of the receiving opening (8,9) thereof and is at least mechanically positively connected with the roll housing by way of at least one axial force measuring pin (15, 16, 17, 18) that an axial force, which is produced during a rolling process and which is transmitted by way of the roll journal, the chock (8, 9) and the locking plate (11, 12, 13, 14) to at least one of the axial force measuring pins (15, 16, 17, 18), is detectable by the respective axial force measuring pin (15, 16, 17, 18). a first roll housing arranged on a drive side and a second roll housing arranged on a control side, wherein each of the roll housings (3, 5) has at least one receiving opening (6, 7) for a chock (8, 9) for rotatable mounting of an axially non-displaceable roll provided with roll journals, at least two locking plates (11, 12, 13, 14) for locking the chocks (8, 9), wherein a respective one of the locking plates (11, 12, 13, 14) is so arranged at the end of the respective roll housing (3, 5) remote from the roll that the plate (11, 12, 13, 14) covers at least a part of the receiving opening (8,9) thereof and is at least mechanically positively connected with the roll housing by way of at least one axial force measuring pin (15, 16, 17, 18) that an axial force, which is produced during a rolling process and which is transmitted by way of the roll journal, the chock (8, 9) and the locking plate (11, 12, 13, 14) to at least one of the axial force measuring pins (15, 16, 17, 18), is detectable by the respective axial force measuring pin (15, 16, 17, 18).
A mobile communications device for communicating data to and/or from a mobile communications network comprising a core network part and a radio network part including base stations for communicating data to or from mobile communications devices, the mobile communications device comprising an execution processor which is arranged to operate a plurality of applications programs (A1, A2, A3, A4), each of which is arranged to generate an indication of a relative type of the data packets for communication to and/or from a communications bearer (36, 38) or the communications bearer and one or more other communications bearers (36, 38) as a part of a communications session, the mobile communications network communicating the data packets differently via the communications bearer (36, 38) or the communications bearer and one or more other communications bearers (36, 38) depending on the relative type of the data packets communicated via the communications bearer or each communications bearer (36, 38), and the mobile communications device being arranged in operation to communicate the indication of the relative type of data packets for communication via the communications bearer or the communications bearer and the one or more other communications bearers (36, 38) for supporting the communications session of the mobile communications device, the indication of the relative type of the data packets being used to configure the communications bearer or the communication bearer and the one or more other communications bearers, the relative type of the data packets communicated being one of a machine type communications indicator, a low priority indicator, a regular user indicator or a high priority indicator, to communicate the data packets via the communications bearer or the communications bearer and the one or more other communications bearers (36, 38) to one or more of the base stations in accordance with the indication of the relative type of the data packets, and to control the communication of the data packets via the communications bearer (36, 38) or the communications bearer and the one or more other communications bearers (36, 38) in accordance with a relative priority indicated by the relative type of data packets being communicated via the communications bearer or the one or more other communications bearers by being arranged in operation to receive an indication from the mobile communications network that the mobile communications network is congested, and in response to receiving the indication that the mobile communications network is congested, store data packets indicated as having a lower priority in a buffer for communication via the communications bearer at a later time and communicating data packets indicated as having a higher priority from other communications bearers at an earlier time in preference to the lower priority data packets.
A door latch device for being disposed on a door of a vehicle, the door latch device being configured to latch and unlatch a striker disposed on a main body side of the vehicle to close and open the door, and the door latch device comprising: an electric component including a motor; a machine mechanism configured to be driven by the motor; a circuit board electrically connected to the electric component; a case; a first cover forming a first housing space in which the motor and the machine mechanism are housed by covering one surface of the case; a second cover forming a second housing space in which the circuit board is housed by covering another surface of the case; a pin hole (148, 150, 152, 154, 156, A) disposed in the case to establish communication between the first housing space and the second housing space; a pin (128, 130, 132, 134, 136, P) erected from the circuit board to project to the first housing space through the pin hole (148, 150, 152, 154, 156, A); an external waterproof seal disposed between the case and the second cover, and configured to waterproof the second housing space against outside, characterized in that the door latch device further comprises a pin holder (138, 140, 142, 144, 146, H) configured to support the pin (128, 130, 132, 134, 136, P) with respect to the circuit board by covering a periphery of a base of the pin (128, 130, 132, 134, 136, P); and an internal waterproof seal (158, 160, 162, 164, 166, B) disposed between the pin holder (138, 140, 142, 144, 146, H) and the pin hole (148, 150, 152, 154, 156, A), and configured to waterproof a space between the first housing space and the second housing space. an electric component including a motor; a machine mechanism configured to be driven by the motor; a circuit board electrically connected to the electric component; a case; a first cover forming a first housing space in which the motor and the machine mechanism are housed by covering one surface of the case; a second cover forming a second housing space in which the circuit board is housed by covering another surface of the case; a pin hole (148, 150, 152, 154, 156, A) disposed in the case to establish communication between the first housing space and the second housing space; a pin (128, 130, 132, 134, 136, P) erected from the circuit board to project to the first housing space through the pin hole (148, 150, 152, 154, 156, A); an external waterproof seal disposed between the case and the second cover, and configured to waterproof the second housing space against outside, a pin holder (138, 140, 142, 144, 146, H) configured to support the pin (128, 130, 132, 134, 136, P) with respect to the circuit board by covering a periphery of a base of the pin (128, 130, 132, 134, 136, P); and an internal waterproof seal (158, 160, 162, 164, 166, B) disposed between the pin holder (138, 140, 142, 144, 146, H) and the pin hole (148, 150, 152, 154, 156, A), and configured to waterproof a space between the first housing space and the second housing space.
A method for determining the circumference of a portion of a body segment covered by skin comprising: (a) applying a series of electrodes around said portion, said series of electrodes having a first electrode and a last electrode, the circumferential distances between all electrodes in the series being known, except for the distance between the first and last electrodes; (b) determining the resistance between at least two electrodes of the series, other than the first and last electrode, by applying a low frequency current which does not substantially penetrate the skin; (c) determining a resistivity value per unit length for the skin from the resistance determined in step (b) and the known circumferential distance between the two electrodes; (d) determining the resistance between the first and last electrodes of the series by applying a low frequency current which does not substantially penetrate the skin; and (e) calculating the distance between the first and last electrodes of the series from the resistance measured in step (d) and the resistivity value per unit length determined in step (c). (a) applying a series of electrodes around said portion, said series of electrodes having a first electrode and a last electrode, the circumferential distances between all electrodes in the series being known, except for the distance between the first and last electrodes; (b) determining the resistance between at least two electrodes of the series, other than the first and last electrode, by applying a low frequency current which does not substantially penetrate the skin; (c) determining a resistivity value per unit length for the skin from the resistance determined in step (b) and the known circumferential distance between the two electrodes; (d) determining the resistance between the first and last electrodes of the series by applying a low frequency current which does not substantially penetrate the skin; and (e) calculating the distance between the first and last electrodes of the series from the resistance measured in step (d) and the resistivity value per unit length determined in step (c).
Method for the three-dimensional forming of an upper of a footwear, comprising: ▪ preparing a sock comprising thermoplastic yarns; ▪ fitting the sock on a reference form of an upper to be formed; ▪ placing the reference form with the sock in at least one oven; ▪ heating the sock in the oven up to determining the at least partial fusion of thermoplastic material of the thermo-plastic yarns of said sock; ▪ cooling the sock up to determining the cross-linking of the thermo-plastic material and the formation of the upper with more rigid portions and less rigid portions; ▪ removing the upper from the reference form; wherein heating the sock in the oven comprises: circulating a heated fluid in the oven; wherein the heated fluid comprises: superheated air or superheated steam or a mixture of superheated air and steam or a mixture of superheated air and superheated steam. ▪ preparing a sock comprising thermoplastic yarns; ▪ fitting the sock on a reference form of an upper to be formed; ▪ placing the reference form with the sock in at least one oven; ▪ heating the sock in the oven up to determining the at least partial fusion of thermoplastic material of the thermo-plastic yarns of said sock; ▪ cooling the sock up to determining the cross-linking of the thermo-plastic material and the formation of the upper with more rigid portions and less rigid portions; ▪ removing the upper from the reference form;
A method for data transmission in a machine type communication device terminal, comprising steps of: performing the following steps when the terminal receives cell common message: A. receiving first indication information from an enhanced physical downlink control channel, EPDCCH, on a first resource block, wherein the first indication information indicates a second resource block for transmitting the cell common message; B. receiving the cell common message from a physical downlink shared channel, PDSCH, on the second resource block; performing the following steps when the terminal receives downlink data: I. receiving second indication information from EPDCCH on a third resource block; II. detecting whether downlink control information, DCI, information transmitted to the terminal exists in the second indication information, and if the DCI information transmitted to the terminal exists, II-1. decoding information of a fourth resource block in the DCI information; II-2. receiving the downlink data transmitted from the base station to the terminal from the PDSCH on the fourth resource block. wherein the first indication information indicates a second resource block for transmitting the cell common message; B. receiving the cell common message from a physical downlink shared channel, PDSCH, on the second resource block; performing the following steps when the terminal receives downlink data: I. receiving second indication information from EPDCCH on a third resource block; II. detecting whether downlink control information, DCI, information transmitted to the terminal exists in the second indication information, and if the DCI information transmitted to the terminal exists, II-1. decoding information of a fourth resource block in the DCI information; II-2. receiving the downlink data transmitted from the base station to the terminal from the PDSCH on the fourth resource block.
A casing brake assembly for applying a frictional force to a tubular or bag-shaped packaging casing being arranged on a filling tube of a production apparatus, like a clipping machine, which is used in the production of sausage-shaped products, like sausages, and for limiting the movement of said tubular or bag-shaped packaging casing at least while being filled, wherein the casing brake assembly comprises: tubular support means for supporting leastwise one brake element, characterized in that it further comprises a safety means comprising at least one tubular element and at least one switch element, the tubular element being arranged coaxially with the tubular support means upstream with respect to a filling direction of the packaging casing, wherein the tubular element is axially spaced apart and moveably arranged with respect to the tubular support means, and the switch element being stationary with respect to the tubular element and arranged for interacting with at least one safety means of the production apparatus. tubular support means for supporting leastwise one brake element, characterized in that it further comprises a safety means comprising at least one tubular element and at least one switch element, the tubular element being arranged coaxially with the tubular support means upstream with respect to a filling direction of the packaging casing, wherein the tubular element is axially spaced apart and moveably arranged with respect to the tubular support means, and the switch element being stationary with respect to the tubular element and arranged for interacting with at least one safety means of the production apparatus.
An internal combustion engine crankcase which has at least one cylinder provided for receiving a piston, the inner side of which cylinder is provided with a coating forming a running surface for the piston, wherein the coating has a large number of pores, wherein the average size of the pores and/or a further parameter vary/varies over the length of the cylinder, characterised in that • the further parameter is the pore surface proportion, • the running surface is finished by a mechanical honing process, • the cylinder has an upper end close to the cylinder head and a lower end close to the oil pan, wherein the size of the pores and the pore surface proportion decrease from the lower end in the direction of the upper end, and in that the honed running surface has a roughness which lies within the following ranges: • Rpk in the range between 0.05 μm and 2 μm, and/or • Rvk in the range = 0.5 μm - 15 μm, and/or • V0 in the range between 0.1 μm and 16 μm, and/or • Rk in the range between 0.05 μm and 5 μm. • the further parameter is the pore surface proportion, • the running surface is finished by a mechanical honing process, • the cylinder has an upper end close to the cylinder head and a lower end close to the oil pan, wherein the size of the pores and the pore surface proportion decrease from the lower end in the direction of the upper end, and in that the honed running surface has a roughness which lies within the following ranges: • Rpk in the range between 0.05 μm and 2 μm, and/or • Rvk in the range = 0.5 μm - 15 μm, and/or • V0 in the range between 0.1 μm and 16 μm, and/or • Rk in the range between 0.05 μm and 5 μm.
An ostomy body side member having a sealing member where the sealing member comprises - a fixed base member defining an opening having a first diameter, - a resilient sealing element comprising a stoma receiving orifice defining an inner boundary where the inner boundary of the stoma receiving orifice has a second diameter that is smaller than the first diameter of the fixed base member, - at least one adjustment member coupled between the fixed base member and the resilient sealing element, and - an alignment member for adjusting the tension of the at least one adjustment member so that the diametrical dimension of the stoma sealing orifice may be adjusted from a first diameter to a second diameter. - a fixed base member defining an opening having a first diameter, - a resilient sealing element comprising a stoma receiving orifice defining an inner boundary where the inner boundary of the stoma receiving orifice has a second diameter that is smaller than the first diameter of the fixed base member, - at least one adjustment member coupled between the fixed base member and the resilient sealing element, and - an alignment member for adjusting the tension of the at least one adjustment member so that the diametrical dimension of the stoma sealing orifice may be adjusted from a first diameter to a second diameter.
An engine exhaust gas recirculation mixer for an engine, the mixer comprising: a plurality of convergent nozzles defining a plurality of flow passages that extend alongside one another in a flow path from an engine intake air inlet of the mixer to an outlet of the mixer, the plurality of convergent nozzles each converging toward the outlet of the mixer; an exhaust gas receiver housing comprising an exhaust gas inlet into an interior of the exhaust gas receiver housing; and a plurality of convergent-divergent nozzles in the flow path each corresponding to one of the plurality of convergent nozzles, the plurality of convergent-divergent nozzles extending alongside one another, the plurality of convergent-divergent nozzles each comprising an air-exhaust gas inlet in fluid communication to receive fluid flow from a corresponding convergent nozzle and the interior of the exhaust gas receiver housing; characterized in that: the air-exhaust gas inlet of each of the plurality of convergent-divergent nozzles is an air-fuel-exhaust gas inlet in communication with a fuel supply into the mixer, wherein the fuel supply comprises fuel supply ports positioned upstream of the convergent-divergent nozzles, and the fuel supply ports are located on a side of each of the convergent nozzles or downstream of a convergent end of each of the convergent nozzles and upstream of the exhaust gas inlet. a plurality of convergent nozzles defining a plurality of flow passages that extend alongside one another in a flow path from an engine intake air inlet of the mixer to an outlet of the mixer, the plurality of convergent nozzles each converging toward the outlet of the mixer; an exhaust gas receiver housing comprising an exhaust gas inlet into an interior of the exhaust gas receiver housing; and a plurality of convergent-divergent nozzles in the flow path each corresponding to one of the plurality of convergent nozzles, the plurality of convergent-divergent nozzles extending alongside one another, the plurality of convergent-divergent nozzles each comprising an air-exhaust gas inlet in fluid communication to receive fluid flow from a corresponding convergent nozzle and the interior of the exhaust gas receiver housing; characterized in that: the air-exhaust gas inlet of each of the plurality of convergent-divergent nozzles is an air-fuel-exhaust gas inlet in communication with a fuel supply into the mixer, wherein the fuel supply comprises fuel supply ports positioned upstream of the convergent-divergent nozzles, and the fuel supply ports are located on a side of each of the convergent nozzles or downstream of a convergent end of each of the convergent nozzles and upstream of the exhaust gas inlet. the air-exhaust gas inlet of each of the plurality of convergent-divergent nozzles is an air-fuel-exhaust gas inlet in communication with a fuel supply into the mixer, wherein the fuel supply comprises fuel supply ports positioned upstream of the convergent-divergent nozzles, and the fuel supply ports are located on a side of each of the convergent nozzles or downstream of a convergent end of each of the convergent nozzles and upstream of the exhaust gas inlet.