mhurhangee/ep-ind-claims huggingface dataset:
A method for the purification of a recombinantly expressed triple-helical protein comprising a repeating (Gly-X-Y)n motif, where n is between 5 and 600 and X and Y are independently any natural or unnatural imino or amino acid, wherein the protein is contained within a non-mammalian host cell culture extract or homogenate, the method comprising: (i) precipitating the host cell materials from the triple-helical protein at a pH less than 7 and at a temperature that is less than the melting temperature Tm of the triple-helical protein; followed by (ii) digesting host cell materials present in the precipitated host cell culture extract or homogenate by addition of an acid protease, wherein the triple-helical protein is resistant to the acid protease digestion; and (iii) collecting the purified triple-helical protein; wherein the triple-helical protein remains in solution throughout at least steps (i) and (ii). (i) precipitating the host cell materials from the triple-helical protein at a pH less than 7 and at a temperature that is less than the melting temperature Tm of the triple-helical protein; followed by (ii) digesting host cell materials present in the precipitated host cell culture extract or homogenate by addition of an acid protease, wherein the triple-helical protein is resistant to the acid protease digestion; and (iii) collecting the purified triple-helical protein;
A method for manufacturing a back side illuminated photodetector comprising: forming an assembly of layers including an InP cap layer on an InGaAs absorption region layer, wherein the InGaAs layer is on an n-InP layer, and wherein an underlying substrate layer underlies the n-InP layer, wherein a sacrificial layer is located between and in direct contact with the n-InP layer and the substrate layer; and thinning the InP cap layer by dry etching to a thickness of equal to or less than one hundred nanometers; wherein the n-InP layer is a contact layer for the back side illuminated detector, and further comprising: removing the substrate layer by chemical/mechanical polishing, selective wet etching of the substrate layer and the sacrificial layer; dry etching a portion of the n-InP layer away; and dry etching at least one of the InP cap layer or the n-InP layer down to a final thickness of 10nm. forming an assembly of layers including an InP cap layer on an InGaAs absorption region layer, wherein the InGaAs layer is on an n-InP layer, and wherein an underlying substrate layer underlies the n-InP layer, wherein a sacrificial layer is located between and in direct contact with the n-InP layer and the substrate layer; and thinning the InP cap layer by dry etching to a thickness of equal to or less than one hundred nanometers; wherein the n-InP layer is a contact layer for the back side illuminated detector, and further comprising: removing the substrate layer by chemical/mechanical polishing, selective wet etching of the substrate layer and the sacrificial layer; dry etching a portion of the n-InP layer away; and dry etching at least one of the InP cap layer or the n-InP layer down to a final thickness of 10nm. removing the substrate layer by chemical/mechanical polishing, selective wet etching of the substrate layer and the sacrificial layer; dry etching a portion of the n-InP layer away; and dry etching at least one of the InP cap layer or the n-InP layer down to a final thickness of 10nm.
Filter system, in particular for water-conducting domestic appliances, with a filter, which has at least one resiliently deformable filter layer, and with a mechanical actuating facility, wherein the resiliently deformable filter layer has a plurality of open recesses, which form pores, and which determine the permeability or the retaining capacity of the overall filter layer due to their shape as a whole, wherein the resiliently deformable filter layer can be stretched or compressed and wherein a force or a mechanical tension can be applied to the resiliently deformable filter layer by means of the actuating facility, in order to stretch and/or compress the resiliently deformable filter layer, whereby the pore size can be set, characterised in that the open recesses extend through the filter layer perpendicularly to a filter side (23, 24) of the filter layer and the resiliently deformable filter layer can be stretched and/or compressed along or perpendicularly to the respective extension direction of the open recesses.
A hose assembly comprising: a metal hose; an end connection having a distal end defining a fluid connector and a proximal end defining a tube stub received in a distal end portion of the hose; and a weld collar surrounding the distal end portion of the hose and the tube stub of the end connection, with the weld collar, the hose distal end portion, and the tube stub being welded together at a welding zone proximal to a distal edge of the metal hose; wherein a proximal edge of the tube stub is disposed at the welding zone, such that the tube stub does not extend proximal to the welding zone. a metal hose; an end connection having a distal end defining a fluid connector and a proximal end defining a tube stub received in a distal end portion of the hose; and a weld collar surrounding the distal end portion of the hose and the tube stub of the end connection, with the weld collar, the hose distal end portion, and the tube stub being welded together at a welding zone proximal to a distal edge of the metal hose; wherein a proximal edge of the tube stub is disposed at the welding zone, such that the tube stub does not extend proximal to the welding zone.
Method for identifying triggering of a safety device by means of a battery management unit, wherein the safety device is integrated in a battery cell and is triggered when there is a safety-critical situation in the battery cell, characterized in that the battery management unit has a detection unit, a model unit and an evaluation unit, wherein the method comprises the following method steps: - detecting an actual time profile of a characteristic variable of the battery cell by means of the detection unit; - determining an expected time profile of the characteristic variable by means of the model unit, in particular using a model; - comparing the actual time profile of the characteristic variable with the expected time profile of said characteristic variable by means of the evaluation unit; and - making a decision, on the basis of the comparison by means of the evaluation unit, as to whether the safety device has been triggered. - detecting an actual time profile of a characteristic variable of the battery cell by means of the detection unit; - determining an expected time profile of the characteristic variable by means of the model unit, in particular using a model; - comparing the actual time profile of the characteristic variable with the expected time profile of said characteristic variable by means of the evaluation unit; and - making a decision, on the basis of the comparison by means of the evaluation unit, as to whether the safety device has been triggered.
Method for producing containers made of plastic, preferably from PET, by stretch or blow moulding, making use of preforms in a blow moulding machine and for the subsequent treatment of the containers in at least one treatment station of a container treatment segment, wherein, before the end of the stretch or blow moulding, the angular position of the respective container is detected, this angular position or first position data corresponding to this angular position is passed on to the at least one following treatment station for the controlled initiation of the treatment procedure dependent on the position data, the respective preform is introduced into the stretch or blow moulding machine held in a centring and holding element, and the container, after the stretch or blow moulding, is moved, held by the same centring and holding element, through the treatment segment, and, with the aid of the centring and holding element, the alignment and/or rotation of the respective container takes place at the at least one treatment station.
A catalyst layer forming method of forming a catalyst layer on a surface of an electrolyte membrane of a fuel cell, the method comprising the steps of: (a) transporting an electrolyte membrane having a support film attached to a first surface thereof; (b) applying a catalyst ink to part of a second surface of said electrolyte membrane; (c) heating said electrolyte membrane applied with said catalyst ink at a first temperature to evaporate a solvent contained in said catalyst ink to 30% or less of that before heating; and (d) heating said electrolyte membrane at a second temperature higher than said first temperature and drying said catalyst ink to form a catalyst layer after said step (c), said second temperature being higher than a glass transition temperature of said catalyst layer and being lower than a melting point of said catalyst layer; wherein said first temperature being equal to or higher than a boiling point of said solvent of said catalyst ink and lower than a glass transition temperature of said electrolyte membrane. (a) transporting an electrolyte membrane having a support film attached to a first surface thereof; (b) applying a catalyst ink to part of a second surface of said electrolyte membrane; (c) heating said electrolyte membrane applied with said catalyst ink at a first temperature to evaporate a solvent contained in said catalyst ink to 30% or less of that before heating; and (d) heating said electrolyte membrane at a second temperature higher than said first temperature and drying said catalyst ink to form a catalyst layer after said step (c), said second temperature being higher than a glass transition temperature of said catalyst layer and being lower than a melting point of said catalyst layer; wherein
A formed article comprising a copolymer, the copolymer comprising a structural unit of a cyclic olefin monomer derived from norbornene, and a structural unit of a monomer derived from at least one of C 4 to C 12 α-olefins, and the copolymer having a Tg of 200°C or more and an Al content of 50 ppm or less, wherein the copolymer is obtained by using a co-catalyst including alkylaluminoxane. a structural unit of a monomer derived from at least one of C 4 to C 12 α-olefins, and the copolymer having a Tg of 200°C or more and an Al content of 50 ppm or less, wherein the copolymer is obtained by using a co-catalyst including alkylaluminoxane.
A control apparatus adapted for controlling a movement of a pointer displayed on a screen (3, 120) that includes a plurality of regions, in accordance with detection signals output from an input apparatus (1, 51, 61, 71, 81), the control apparatus comprising: a reception means adapted for receiving the detection signals; a calculation means adapted for calculating, based on detection values of the received detection signals, a first corresponding displacement amount (V x) of the input apparatus corresponding to the detection value of a movement in a first direction of a casing (10, 50, 60, 70, 80, 91, 92) of the input apparatus (1, 51, 61, 71, 81) and a second corresponding displacement amount (V y) of the input apparatus corresponding to the detection value of a movement in a second direction of the casing, different from the first direction, adapted for moving the pointer on the screen (3, 120); and a display control means adapted for controlling display of the screen (3, 120) so that the pointer moves by a first displacement amount (X'(t)) obtained by multiplying the first corresponding displacement (V x) amount by a first value, and the pointer moves by a second displacement amount (Y'(t)) obtained by multiplying the second corresponding displacement (V y) amount by a second value, the display control means being configured to set the first value and the second value depending on the specific region of the plurality of regions in which the pointer moves, so as to bias a moving direction of the pointer on the screen for each of the regions. a reception means adapted for receiving the detection signals; a calculation means adapted for calculating, based on detection values of the received detection signals, a first corresponding displacement amount (V x) of the input apparatus corresponding to the detection value of a movement in a first direction of a casing (10, 50, 60, 70, 80, 91, 92) of the input apparatus (1, 51, 61, 71, 81) and a second corresponding displacement amount (V y) of the input apparatus corresponding to the detection value of a movement in a second direction of the casing, different from the first direction, adapted for moving the pointer on the screen (3, 120); and a display control means adapted for controlling display of the screen (3, 120) so that the pointer moves by a first displacement amount (X'(t)) obtained by multiplying the first corresponding displacement (V x) amount by a first value, and the pointer moves by a second displacement amount (Y'(t)) obtained by multiplying the second corresponding displacement (V y) amount by a second value,
A polymer composition suitable for clear graphic cling film comprising: a polyolefin composition selected from the group consisting of a propylene-based composition, and an ethylene-based composition, wherein the propylene-based composition has an melt flow rate in the range of from 2 and 8 g/10 minutes, a dynamic mechanical spectroscopy value in the range of from 3700 to 10100 Pascal-seconds at 0.1 radian per second and from 650 to 1200 Pascal-seconds at 100 radian per second measured at 190° C, and having a crystallinity in the range of from at least 4 percent by weight to 11 percent by weight, and a heat of fusion in the range of from 6 to 19 Joules/gram, and a DSC melting point in the range of less than 110° C, and wherein the ethylene-based composition has a melt index (I 2) in the range of from 0.5 to 5 g/10 minutes, and a density in the range of from 0.865 to 0.880 g/cm 3, a dynamic mechanical spectroscopy value in the range of from 1800 to 17000 Pascal-seconds at 0.1 radian per second and from 750 to 2200 Pascal-seconds at 100 radian per second measured at 190° C, and having a crystallinity in the range of from at least 14 percent by weight to 20 percent by weight, and a heat of fusion in the range of from 40 to 60 Joules/gram, and a DSC melting point in the range of less than 70° C, and one or more alkyl phosphate-based release agent; wherein when said polyolefin composition is formed into a clear graphic cling film having a thickness of 178 (± 51) μm (7 (± 2) mils), said clear graphic cling film has a haze in the range of less than 4 percent, measured according to ASTM-D 1003. a polyolefin composition selected from the group consisting of a propylene-based composition, and an ethylene-based composition, wherein the propylene-based composition has an melt flow rate in the range of from 2 and 8 g/10 minutes, a dynamic mechanical spectroscopy value in the range of from 3700 to 10100 Pascal-seconds at 0.1 radian per second and from 650 to 1200 Pascal-seconds at 100 radian per second measured at 190° C, and having a crystallinity in the range of from at least 4 percent by weight to 11 percent by weight, and a heat of fusion in the range of from 6 to 19 Joules/gram, and a DSC melting point in the range of less than 110° C, and wherein the ethylene-based composition has a melt index (I 2) in the range of from 0.5 to 5 g/10 minutes, and a density in the range of from 0.865 to 0.880 g/cm 3, a dynamic mechanical spectroscopy value in the range of from 1800 to 17000 Pascal-seconds at 0.1 radian per second and from 750 to 2200 Pascal-seconds at 100 radian per second measured at 190° C, and having a crystallinity in the range of from at least 14 percent by weight to 20 percent by weight, and a heat of fusion in the range of from 40 to 60 Joules/gram, and a DSC melting point in the range of less than 70° C, and one or more alkyl phosphate-based release agent; wherein when said polyolefin composition is formed into a clear graphic cling film having a thickness of 178 (± 51) μm (7 (± 2) mils), said clear graphic cling film has a haze in the range of less than 4 percent, measured according to ASTM-D 1003.
A catalyst layer including an interface to a polyelectrolyte membrane, the catalyst layer comprising: a layer forming material comprising a catalytic substance, a conductive carrier supporting the catalytic substance, a polyelectrolyte and a fibrous material, and a plurality of pores containing no layer forming material, wherein a pore area ratio which is a total area ratio of the plurality of pores to an area of a cross-section orthogonal to the interface is 25.0% or more and 35.0% or less in a cross-sectional image captured by a scanning electron microscope. a layer forming material comprising a catalytic substance, a conductive carrier supporting the catalytic substance, a polyelectrolyte and a fibrous material, and a plurality of pores containing no layer forming material, wherein a pore area ratio which is a total area ratio of the plurality of pores to an area of a cross-section orthogonal to the interface is 25.0% or more and 35.0% or less in a cross-sectional image captured by a scanning electron microscope.
Press/wrapper combination for pressing and wrapping round bales, in particular round bales of agricultural crops, comprising a round baler for producing round bales and a bale wrapping device, which is arranged downstream of the round baler and comprises a wrapping table, for wrapping the round bales with wrapping material, an open- and closed-loop control apparatus of the press/wrapper combination producing a tilting movement of the wrapping table for receiving the pressed round bales for the wrapping process and for depositing the wrapped round bales on the ground, characterised in that, while the bales are being deposited, the open- and closed-loop control apparatus of the press/wrapper combination adapts the tilting movement of the wrapping table to the travelling speed of the press/wrapper combination in order to deposit the round bales.
Natural escapement for horological movement carrying out a succession of operating cycles each consisting of a first and of a second alternation of a balance during which the balance moves from a first extreme position to a second extreme position by passing through a middle rest position, then from its second extreme position to its first extreme position by passing again a second time through its middle rest position, this balance comprising a balance wheel on an arbor of which is adjusted a balance plate, this natural escapement comprising a first escape wheel set having at least one first toothing, this first escape wheel set, arranged to be driven by a wheel set of the train of the horological movement, driving in turn a second escape wheel set having at least one second toothing, the first and second escape wheel sets forming a kinematic chain arranged to cooperate with an anchor capable of pivoting about an anchor-staff, the balance plate causing the anchor to pivot with each of the first and second alternations, this anchor being arranged to lock respectively the first and the second escape wheel set temporarily during the second and first alternations of an operating cycle, the anchor further comprising a first, respectively a second safety lever (84, 86), these first and second safety levers (84, 86) being arranged so that, in the absence of the balance, one or other of the second and first escape wheel sets, by driving the second or, respectively, the first safety lever (84, 86), causes the anchor to pivot to ensure the locking of the first or of the second escape wheel set by abutment of this first or of this second escape wheel set on a portion (88, 90) of the anchor that ensures the function of a stop pallet-stone of this first or of this second escape wheel set during normal operation of the escapement, the first and second safety levers (84, 86) being arranged so as not to be in contact with the first and second escape wheel sets during normal operation of the escapement during which it is the balance plate that causes the anchor to pivot.
An oscillating arm front suspension for a saddle riding vehicle comprising: - a steering bar mechanically connected, or adapted to be connected, to a steering handlebar of the saddle riding vehicle; - a first oscillating arm having a first end portion and a second end portion opposite to the first end portion, wherein the first end portion of the first oscillating arm is rotatably joined to the steering bar and wherein the first oscillating arm directly carries a rotation pin of an associable front wheel of the saddle riding vehicle; - a shock absorber assembly which extends between an attachment head and an attachment foot; - and the oscillating arm front suspension is characterized by comprising: a support element adapted and configured to support said shock absorber assembly and a braking member, said attachment foot being rotatably joined to said support element; - a second oscillating arm operatively interposed between the steering bar and said support element, wherein said second oscillating arm is rotatably joined to the steering bar and to said support element. - a steering bar mechanically connected, or adapted to be connected, to a steering handlebar of the saddle riding vehicle; - a first oscillating arm having a first end portion and a second end portion opposite to the first end portion, wherein the first end portion of the first oscillating arm is rotatably joined to the steering bar and wherein the first oscillating arm directly carries a rotation pin of an associable front wheel of the saddle riding vehicle; - a shock absorber assembly which extends between an attachment head and an attachment foot; - and the oscillating arm front suspension is characterized by comprising: a support element adapted and configured to support said shock absorber assembly and a braking member, said attachment foot being rotatably joined to said support element; - a second oscillating arm operatively interposed between the steering bar and said support element, wherein said second oscillating arm is rotatably joined to the steering bar and to said support element.
A measuring system for measuring a high frequency signal, comprising: - an antenna module, adapted for receiving the high frequency signal, - a detector module, adapted for deriving a measuring signal from the high frequency signal, and - a sensor module, adapted for measuring the measuring signal, wherein the sensor module is arranged in a housing, wherein the detector module is not arranged in the housing, wherein the detector module is connected to the sensor module by a first cable, adapted to transmit the measuring signal from the detector module to the sensor module, characterized in that the detector module comprises a chopper, adapted to modulate a signal derived from the high frequency signal, resulting in a signal the measuring signal is derived from. - an antenna module, adapted for receiving the high frequency signal, - a detector module, adapted for deriving a measuring signal from the high frequency signal, and - a sensor module, adapted for measuring the measuring signal, wherein the sensor module is arranged in a housing, wherein the detector module is not arranged in the housing, wherein the detector module is connected to the sensor module by a first cable, adapted to transmit the measuring signal from the detector module to the sensor module, characterized in that the detector module comprises a chopper, adapted to modulate a signal derived from the high frequency signal, resulting in a signal the measuring signal is derived from. wherein the sensor module is arranged in a housing, wherein the detector module is not arranged in the housing, wherein the detector module is connected to the sensor module by a first cable, adapted to transmit the measuring signal from the detector module to the sensor module, characterized in that the detector module comprises a chopper, adapted to modulate a signal derived from the high frequency signal, resulting in a signal the measuring signal is derived from.