mhurhangee/ep-ind-claims huggingface dataset:
A melt polymerization process comprising: melt polymerizing reactants in at least two polymerization units, in the presence of a catalyst composition to form polymerized polycarbonate, wherein the catalyst composition comprises a catalyst comprising a source of one or both of alkali and alkaline earth metal ions; adding a quencher composition comprising a liquid quencher composition by a method comprising combining a liquid carrier and the quencher in a quencher vessel to form the liquid quencher composition, and adding the liquid quencher composition to the polymerized polycarbonate at a pressure of greater than or equal to 2 bars or greater than or equal to 3 bars; mixing the quencher composition with the polymerized polycarbonate for a period of time of greater than or equal to 5 seconds prior to the addition to the polymerized polycarbonate of any additives having a reactive OH group or reactive ester group; filtering the polymerized polycarbonate; directing the polymerized polycarbonate to an extruder; directing an anthraquinone colorant, a phenolic antioxidant, a UV absorber, a release agent, a flame retardant, or a combination comprising one or more of the foregoing to the extruder; and adding an anti-drip agent, wherein the liquid carrier is free of water and phenol. melt polymerizing reactants in at least two polymerization units, in the presence of a catalyst composition to form polymerized polycarbonate, wherein the catalyst composition comprises a catalyst comprising a source of one or both of alkali and alkaline earth metal ions; adding a quencher composition comprising a liquid quencher composition by a method comprising combining a liquid carrier and the quencher in a quencher vessel to form the liquid quencher composition, and adding the liquid quencher composition to the polymerized polycarbonate at a pressure of greater than or equal to 2 bars or greater than or equal to 3 bars; mixing the quencher composition with the polymerized polycarbonate for a period of time of greater than or equal to 5 seconds prior to the addition to the polymerized polycarbonate of any additives having a reactive OH group or reactive ester group; filtering the polymerized polycarbonate; directing the polymerized polycarbonate to an extruder; directing an anthraquinone colorant, a phenolic antioxidant, a UV absorber, a release agent, a flame retardant, or a combination comprising one or more of the foregoing to the extruder; and adding an anti-drip agent, wherein the liquid carrier is free of water and phenol.
A mounting unit for mounting an electrical component to a panel comprising: a first member arranged to engage a lower side of said panel, the first member being a bezel ring; and a second member comprising a ring arranged to abut an upper, opposite side of said panel, the second member arranged to engage the first member so as to secure the first and second members (12, 14) to opposite sides of the panel through a hole in the panel; and a catch for securing the electrical component thereto; wherein the mounting unit comprises complementary ratchet portions (24, 40) for securing the first and second members (12, 14) to one another, the mounting unit being arranged such that the first and second members (12, 14) may be mounted together in a first position in which the ratchet portions (24, 40) do not engage, and in a second position in which the ratchet portions (24, 40) engage, and wherein the first and second members (12, 14) define a space for receiving the electrical component pulled from a cavity behind the panel to which the mounting unit is secured. a first member arranged to engage a lower side of said panel, the first member being a bezel ring; and a second member comprising a ring arranged to abut an upper, opposite side of said panel, the second member arranged to engage the first member so as to secure the first and second members (12, 14) to opposite sides of the panel through a hole in the panel; and a catch for securing the electrical component thereto; wherein the mounting unit comprises complementary ratchet portions (24, 40) for securing the first and second members (12, 14) to one another, the mounting unit being arranged such that the first and second members (12, 14) may be mounted together in a first position in which the ratchet portions (24, 40) do not engage, and in a second position in which the ratchet portions (24, 40) engage, and wherein the first and second members (12, 14) define a space for receiving the electrical component pulled from a cavity behind the panel to which the mounting unit is secured.
A compressor housing assembly for a turbocharger comprising: a compressor housing shell (442, 642, 842) that comprises an axis for alignment with a rotational axis of a compressor wheel, a wall (447, 647, 847) that comprises features defined in part by radii with respect to the axis, and an edge (443, 643, 843) that defines in part an inlet opening of a shroud port (445, 845); and an insert (402, 702, 804) that comprises a lower shroud section (450, 750, 850) and a noise suppressor section (470, 770, 870) that define a recirculation port (475, 775, 875) wherein the insert is axially located by the wall of the compressor housing shell, wherein an internal recirculation passage (455, 855) is defined in part by the insert and the wall, wherein a lower edge (451, 771, 871) of the shroud section defines in part the inlet opening of the shroud port and wherein the lower edge is axially the lowermost edge of the insert, wherein the wall comprises an outer surface to mount a conduit to the compressor housing shell; characterized in that the noise suppressor section comprises a shoulder and wherein the wall comprises a seat that seats the shoulder to axially locate the insert with respect to the compressor housing shell such that the shroud section is not in direct contact with the compressor housing shell. a compressor housing shell (442, 642, 842) that comprises an axis for alignment with a rotational axis of a compressor wheel, a wall (447, 647, 847) that comprises features defined in part by radii with respect to the axis, and an edge (443, 643, 843) that defines in part an inlet opening of a shroud port (445, 845); and an insert (402, 702, 804) that comprises a lower shroud section (450, 750, 850) and a noise suppressor section (470, 770, 870) that define a recirculation port (475, 775, 875) wherein the insert is axially located by the wall of the compressor housing shell, wherein an internal recirculation passage (455, 855) is defined in part by the insert and the wall, wherein a lower edge (451, 771, 871) of the shroud section defines in part the inlet opening of the shroud port and wherein the lower edge is axially the lowermost edge of the insert, wherein the wall comprises an outer surface to mount a conduit to the compressor housing shell; characterized in that the noise suppressor section comprises a shoulder and wherein the wall comprises a seat that seats the shoulder to axially locate the insert with respect to the compressor housing shell such that the shroud section is not in direct contact with the compressor housing shell.
Process for preparing polyethercarbonate polyols of relatively high functionality by reaction of at least two alkylene oxides and carbon dioxide with H-functional starter compounds in the presence of a double metal cyanide catalyst, characterized in that at least one of the alkylene oxides has an epoxy functionality of ≥ 2.
A combination of a container neck (20, 40) with an external thread and a closure, wherein the closure consists of a screw cap with a guarantee band (3, 30), wherein the screw cap has at least one cylindrical cap skirt with an internal thread and a circumferential guarantee band (3, 30) at the lower, open end of the cap skirt, wherein the guarantee band is connected to the lower edge of the cap skirt along easily tearable weakening lines (13, 14, 18, 19), the guarantee band (3, 30) remaining non-detachably connected to the cap skirt via holding bands (15, 16) after tearing along the weakening lines, the holding bands (15, 16) being formed by two weakening lines (13, 14) or cutting lines (18, 19) which are each interrupted at least once in the circumferential direction, partially overlap in the circumferential direction and extend at least in the overlap region at an axial distance from one another, characterised in that the separating webs (11, 12) of both weakening lines (13, 14) or cutting lines (18, 19) are bridged by the respective other weakening line (14, 13) or cutting line (19, 18) at an axial distance, wherein the outer diameter of the container neck (20, 40) measured above a pilferproof ring, the inner diameter of the guarantee band (3, 30), and the width and the circumferential extent of the upper separating web are adjusted to one another, that after an opening rotation of the screw cap and the subsequent tilting of the screw cap upon torsion of the holding bands (15, 16) together with the separating web, a free lower edge of the separating web engages with the container neck (20, 40) and is moved beyond a dead centre when a tilting angle of more than 90° is exceeded, so that the outside of the separating web then comes into contact with the outside of the container neck (20, 40) and the screw cap is stabilised in this position tilted by more than 90°.
An implantable medical device for supporting tissue comprising: a first biocompatible substrate having a first surface including a plurality of first grip-members and a second surface including a plurality of second grip-members; and a second biocompatible substrate, at least one of the first and second substrates (210, 220) comprise a surgical mesh, characterised in that the second biocompatible substrate has a third surface including a plurality of third grip- members and a fourth surface including a plurality of fourth grip-members, wherein the first substrate is attached to the second substrate via interlocking of at least some of the second and third grip-members (221, 223).
A method for checking the quality of an ultrasonic welded connection between a fabric tab and a product, wherein the fabric tab includes a fabric with yarns, wherein the yarns have a fabric spatial frequency in a direction, wherein the product comprises a thermoplastic material at least in one region of overlap with the fabric tab, said region of overlap including the ultrasonic welded connection, wherein the ultrasonic welded connection includes weld points arranged in succession in the direction with a sonotrode spatial frequency different from the fabric spatial frequency, wherein the method includes the steps of: - measuring structural data of the ultrasonic welded connection; - calculating a frequency distribution of the structural data; and - using a value of the frequency distribution to determine a quality characteristic, wherein the value includes at least one value of the frequency distribution in the case of the sonotrode spatial frequency and/or in the case of the fabric spatial frequency, wherein the quality check is passed if the quality characteristic lies within a specified value range. - measuring structural data of the ultrasonic welded connection; - calculating a frequency distribution of the structural data; and - using a value of the frequency distribution to determine a quality characteristic, wherein the value includes at least one value of the frequency distribution in the case of the sonotrode spatial frequency and/or in the case of the fabric spatial frequency,
Production method for a security element for producing documents of value, such as banknotes, cheques or the like, the production method having steps as follows: - providing a polymer film and - forming a laterally structured microfibril structure in the polymer film by exposure to standing light waves (16, 16, 16b) by interference of a reference radiation with a modulated object radiation for location-dependent crosslinking in the polymer film and development with a solvent, so that the polymer film generates a chromatic, optically variable motif in plan view onto the security element. - providing a polymer film and - forming a laterally structured microfibril structure in the polymer film by exposure to standing light waves (16, 16, 16b) by interference of a reference radiation with a modulated object radiation for location-dependent crosslinking in the polymer film and development with a solvent, so that the polymer film generates a chromatic, optically variable motif in plan view onto the security element.
An ink comprising: a coloring material; an acrylic resin particle; an organic solvent; and water, wherein a solid dry film of the ink has, as determined by methods described in the description: a breaking elongation ratio of 50 percent or more; a storage elastic modulus G' of 1.0 × 10 6 Pa or more at 50 degrees C; and a swelling ratio of 40 percent or less to ethylacetate, wherein the acrylic resin particle comprises a first structure unit A represented by the following Chemical structure 1, a second structure unit B represented by the following Chemical formula 1, and a third structure unit C represented by the following Chemical structure 2, where R represents a hydrogen atom or a methyl group, A represents a linear alkyl group having 1 to 10 carbon atoms: where B represents -CH 2 CH(CH 2 CH 3)CH 2 CH 2 CH 2 CH 3, wherein the acrylic resin particle comprises the first structure unit A in an amount of from 40 to 60 percent by mass, the second structure unit B in an amount of 20 to 30 percent by mass, and the third structure unit C in an amount of from 10 to 40 percent by mass, and wherein a mass ratio of the first structure unit A to the second structure unit B is from 2 to 3. a coloring material; an acrylic resin particle; an organic solvent; and water, wherein a solid dry film of the ink has, as determined by methods described in the description: a breaking elongation ratio of 50 percent or more; a storage elastic modulus G' of 1.0 × 10 6 Pa or more at 50 degrees C; and a swelling ratio of 40 percent or less to ethylacetate, wherein the acrylic resin particle comprises a first structure unit A represented by the following Chemical structure 1, a second structure unit B represented by the following Chemical formula 1, and a third structure unit C represented by the following Chemical structure 2, where R represents a hydrogen atom or a methyl group, A represents a linear alkyl group having 1 to 10 carbon atoms: where B represents -CH 2 CH(CH 2 CH 3)CH 2 CH 2 CH 2 CH 3, wherein the acrylic resin particle comprises the first structure unit A in an amount of from 40 to 60 percent by mass, the second structure unit B in an amount of 20 to 30 percent by mass, and the third structure unit C in an amount of from 10 to 40 percent by mass, and wherein a mass ratio of the first structure unit A to the second structure unit B is from 2 to 3.
A method for manufacturing an internally cooled valve, comprising providing a valve body having a valve stem that ends in a valve head, wherein the valve body has a cavity that is open towards the valve head, providing a valve base element, and closing the cavity with the valve base element by friction welding the valve base element to the valve head, characterized in that the valve base element and / or the valve body have / has an engagement structure with which the valve base element and / or the valve body may be centrally clamped and a torque may be transmitted to the valve base element and / or to the valve body, wherein the method comprises producing a valve base element green compact or brown compact by metal powder injection molding and producing the valve base element by sintering from a valve base element green compact or brown compact, wherein the valve base element is provided with a cooling rib and / or flow-influencing structure on a surface facing the cavity. providing a valve base element, and closing the cavity with the valve base element by friction welding the valve base element to the valve head, characterized in that the valve base element and / or the valve body have / has an engagement structure with which the valve base element and / or the valve body may be centrally clamped and a torque may be transmitted to the valve base element and / or to the valve body, wherein the method comprises producing a valve base element green compact or brown compact by metal powder injection molding and producing the valve base element by sintering from a valve base element green compact or brown compact, wherein the valve base element is provided with a cooling rib and / or flow-influencing structure on a surface facing the cavity.
A method for the production of a pouch which has a closable mouth section, a side wall as well as a closed bottom, wherein an injection-moulded preform is brought to the correct temperature and moulded by a blowing process to obtain a container in such a manner that the material in the region of the side wall is oriented biaxially and is moulded with a mean wall thickness of no more than 0.2 mm, and that the closed bottom is provided with a contour in such a manner that the pouch has self-supporting properties, wherein an increase in volume of the pouch by a filling process is at least 10% in relation to the initial volume.
A therapeutic meal package for use in providing meals to a cancer patient that retards cancer growth and enhances efficacy of chemotherapy drugs, the therapeutic meal package comprising: a first meal component portioned into meals, that provide the cancer patient with at most 50% of the patient's normal caloric intake, the first meal component providing the cancer patient 700 to 1200 kcal/day with at least 50% of the kilocalories derived from fat, the first meal component providing meals for a first predetermined period of time from about 1 to 5 days; a second meal component portioned into into meals, the first meal component providing the cancer patient at most 500 kcal/day, the second meal component providing meals for a second predetermined period of time from about 2 to 7 days; and a replenishing composition comprising essential amino acids and other non-essential amino acids, essential fatty acids, minerals, vitamins and/or vegetable extracts for a third predetermined period of time. a first meal component portioned into meals, that provide the cancer patient with at most 50% of the patient's normal caloric intake, the first meal component providing the cancer patient 700 to 1200 kcal/day with at least 50% of the kilocalories derived from fat, the first meal component providing meals for a first predetermined period of time from about 1 to 5 days; a second meal component portioned into into meals, the first meal component providing the cancer patient at most 500 kcal/day, the second meal component providing meals for a second predetermined period of time from about 2 to 7 days; and a replenishing composition comprising essential amino acids and other non-essential amino acids, essential fatty acids, minerals, vitamins and/or vegetable extracts for a third predetermined period of time.
A method performed by a network node, the method comprising: receiving, from a first wireless device, a scheduling request to schedule transmission of a first type of data in a mini-slot, wherein the scheduling request is received in a first mini-slot, m, wherein the received scheduling request is a Ultra Reliable Low Latency Communications Scheduling Request, URLLC-SR, message; identifying ongoing and upcoming slot transmission from at least one second wireless device, wherein said identifying includes determining that said w second wireless device has a previously scheduled transmission of a second type of data in a slot overlapping with the requested mini-slot; transmitting, to the second wireless device, a first control message in a mini-slot m+k, where k is greater than or equal to 1, said first control message is a Downlink Control Information, DCI, message indicating to cancel transmission of the second type of data that overlaps with the requested mini-slot; and receiving, from the first wireless device, the first type of data in the requested mini-slot, wherein the first type of data is received in the requested mini-slot m+k+l, where l is greater than or equal to 1. receiving, from a first wireless device, a scheduling request to schedule transmission of a first type of data in a mini-slot, wherein the scheduling request is received in a first mini-slot, m, wherein the received scheduling request is a Ultra Reliable Low Latency Communications Scheduling Request, URLLC-SR, message; identifying ongoing and upcoming slot transmission from at least one second wireless device, wherein said identifying includes determining that said w second wireless device has a previously scheduled transmission of a second type of data in a slot overlapping with the requested mini-slot; transmitting, to the second wireless device, a first control message in a mini-slot m+k, where k is greater than or equal to 1, said first control message is a Downlink Control Information, DCI, message indicating to cancel transmission of the second type of data that overlaps with the requested mini-slot; and receiving, from the first wireless device, the first type of data in the requested mini-slot, wherein the first type of data is received in the requested mini-slot m+k+l, where l is greater than or equal to 1.
Damper comprising a cylinder containing a damping fluid, at least one piston translatable within said cylinder and defining two damping chambers (4, 5), and a rod for controlling the movement of said at least one piston within said cylinder, said damper further comprising at least one first and second narrow passages (7, 8) through which said damping fluid is forced to pass from one to the other of said two damping chambers (4, 5) when said control rod is controllably moved within said cylinder, characterized in that said at least one piston is translatable with respect to said control rod on the basis of the speed of said control rod, between a first position, in which said at least one piston prevents said damping fluid from passing through said at least one first narrow passage and a second position in which said at least one piston allows said damping fluid to pass through said at least one first narrow passage, and in that it comprises at least one first elastic member constrained to said at least one piston and deformable and/or displaceable with respect to said at least one piston, on the basis of the speed of said at least one control rod, between an arrangement in which said damping fluid is prevented from passing through said at least one second narrow passage, at least when said at least one piston is in said second position, and an arrangement in which said damping fluid is allowed to pass through said at least one second narrow passage.