mhurhangee/ep-ind-claims huggingface dataset:
Cleaning device for liquids, particularly for oil liquids, comprising a housing which contains liquid or through which liquid flows, and at least one cleaning body which is received within the housing and can be acted on by the liquid, wherein the material of the cleaning body is such that contaminants present in the liquid can be introduced into and taken up in the material, wherein the cleaning body is mounted in a cover of the housing or adjacent thereto, characterised in that the cleaning body contains fibrous material, the cleaning body has at least one upper layer (16.2) and base layer (16.3), present in the upper layer (16.2) are fibres which at an outer free edge of the upper layer (16.2) are oriented by the respective free ends thereof away from the base layer (16.3) and outwardly so that the upper layer (16.2) of the cleaning body has at its outer edge an open surface into which contaminants and/or dirt particles are introducible, and the density of the base layer (16.3) is greater than the density of the upper layer (16.2), wherein the cleaning body is mounted by its base layer (16.3) on the housing or a part thereof and accordingly the upper layer (16.2) of the cleaning body can be acted on by the liquid. a housing which contains liquid or through which liquid flows, and at least one cleaning body which is received within the housing and can be acted on by the liquid, wherein the material of the cleaning body is such that contaminants present in the liquid can be introduced into and taken up in the material, wherein the cleaning body is mounted in a cover of the housing or adjacent thereto, characterised in that the cleaning body contains fibrous material, the cleaning body has at least one upper layer (16.2) and base layer (16.3), present in the upper layer (16.2) are fibres which at an outer free edge of the upper layer (16.2) are oriented by the respective free ends thereof away from the base layer (16.3) and outwardly so that the upper layer (16.2) of the cleaning body has at its outer edge an open surface into which contaminants and/or dirt particles are introducible, and the density of the base layer (16.3) is greater than the density of the upper layer (16.2), wherein the cleaning body is mounted by its base layer (16.3) on the housing or a part thereof and accordingly the upper layer (16.2) of the cleaning body can be acted on by the liquid.
A method of polishing an object having a conductor layer made of copper or a copper alloy, the method characterized by: preparing a polishing composition containing: colloidal silica abrasive grains; a polishing accelerator; a water-soluble polymer including a constitutional unit originating from a polymerizable compound having a guanidine structure; and an oxidant; and using the polishing composition to polish a surface of the object. preparing a polishing composition containing: colloidal silica abrasive grains; a polishing accelerator; a water-soluble polymer including a constitutional unit originating from a polymerizable compound having a guanidine structure; and colloidal silica abrasive grains; a polishing accelerator; a water-soluble polymer including a constitutional unit originating from a polymerizable compound having a guanidine structure; and an oxidant; and using the polishing composition to polish a surface of the object.
A composition comprising a vault complex comprising a major vault protein and a fusion protein, wherein the fusion protein comprises a cytokine and a vault targeting domain, wherein the vault targeting domain comprises a major vault protein interaction domain (mINT) derived from a vault poly ADP-ribose polymerase (VPARP) sequence or a telomerase vault associated protein 1 sequence, optionally wherein: (a) the cytokine is a chemokine; (b) the cytokine is a cysteine-cysteine chemokine; (c) the cytokine is a CCL-21 chemokine; (d) the cytokine comprises or consists of the amino acid sequence of SEQ ID NO:2; or (e) the cytokine comprises the amino acid sequence of SEQ ID NO:1. (a) the cytokine is a chemokine; (b) the cytokine is a cysteine-cysteine chemokine; (c) the cytokine is a CCL-21 chemokine; (d) the cytokine comprises or consists of the amino acid sequence of SEQ ID NO:2; or (e) the cytokine comprises the amino acid sequence of SEQ ID NO:1.
A gear control system, comprising: a pulse modulating circuit; a motor; a central processing unit connected to the pulse modulating circuit and arranged for controlling rotation of the motor from an original gear to an aim gear via the pulse modulating circuit; wherein the control system further comprises a motor position detecting device which is connected to the central processing unit and is arranged for detecting the motor rotation position and sending the information of the motor rotation position to the central processing unit, the central processing unit is further arranged for determining whether the motor reaches the aim gear according to the information of the motor rotation position and actuating the pulse modulating circuit to resend a pulse to actuate the motor to reach the aim gear when the motor does not reach the aim gear. a pulse modulating circuit; a motor; a central processing unit connected to the pulse modulating circuit and arranged for controlling rotation of the motor from an original gear to an aim gear via the pulse modulating circuit; wherein the control system further comprises a motor position detecting device which is connected to the central processing unit and is arranged for detecting the motor rotation position and sending the information of the motor rotation position to the central processing unit, the central processing unit is further arranged for determining whether the motor reaches the aim gear according to the information of the motor rotation position and actuating the pulse modulating circuit to resend a pulse to actuate the motor to reach the aim gear when the motor does not reach the aim gear.
Device for clamping parts to be assembled, comprising a nut having a tapped bore and a threaded rod which is able to screw into said bore, characterized in that the nut comprises a body in which there is created an annular cavity (22, 38) which is centred on a central axis of the nut and has a cylindrical side wall of diameter greater than the diameter of the bore, and at least two ducts (23, 24; 25, 26, 27; 28, 29; 32, 33; 36, 37) designed to allow access to said cavity via the exterior of the nut.
Consumption display appliance for displaying the meter reading of a plurality of consumption meters in the home of an end customer, which has: - an antenna, - a radio receiver that is connected to the antenna and that receives the meter reading and meter address sent by a transmission device of a consumption meter, - a control device connected to the radio receiver, - a program and data memory for buffer-storing the data supplied via the antenna and radio receiver, - independent display means (T, AZ), connected to input and the control device, for user-controlled operation and display of the meter reading, and - batteries or rechargeable batteries for supplying power to the appliance, characterized in that the consumption display appliance is self-configurable, in order to execute the self-configuration when the consumption display appliance is first started up the control device stores the meter readings and meter addresses sent by all consumption meters that are in the reception range in the program and data memory and configures the display means on the basis of the meter addresses, said configuration involving selection of the consumption meters. - an antenna, - a radio receiver that is connected to the antenna and that receives the meter reading and meter address sent by a transmission device of a consumption meter, - a control device connected to the radio receiver, - a program and data memory for buffer-storing the data supplied via the antenna and radio receiver, - independent display means (T, AZ), connected to input and the control device, for user-controlled operation and display of the meter reading, and - batteries or rechargeable batteries for supplying power to the appliance, characterized in that the consumption display appliance is self-configurable, in order to execute the self-configuration when the consumption display appliance is first started up the control device stores the meter readings and meter addresses sent by all consumption meters that are in the reception range in the program and data memory and configures the display means on the basis of the meter addresses, said configuration involving selection of the consumption meters.
A benzimidazole-2-piperazine heterocyclic compound of general Formula: or a pharmaceutically acceptable salt thereof, wherein in general Formula: R is fluoro; one of X, Y, and Z is nitrogen, and the others are CH; R 1 is hydrogen, C 1 -C 4 alkyl, methoxy, trifluoromethyl, halo, nitro, cyano, CONR 2 R 3, or NR 2 R 3; R 2 is hydrogen, or C 1 -C 4 alkyl; and R 3 is hydrogen, C 1 -C 4 alkyl, or C 3 -C 6 cycloalkyl, or NR 2 R 3 are cyclized to form morpholinyl, tetrahydropyrrolyl, or piperidinyl. R is fluoro; one of X, Y, and Z is nitrogen, and the others are CH; R 1 is hydrogen, C 1 -C 4 alkyl, methoxy, trifluoromethyl, halo, nitro, cyano, CONR 2 R 3, or NR 2 R 3; R 2 is hydrogen, or C 1 -C 4 alkyl; and R 3 is hydrogen, C 1 -C 4 alkyl, or C 3 -C 6 cycloalkyl, or NR 2 R 3 are cyclized to form morpholinyl, tetrahydropyrrolyl, or piperidinyl.
A process of obtaining Pterostilbene of 50% to 99% purity from botanical source, said process comprising steps of: a. pulverizing and extracting of botanical source with aqueous alcohol to obtain an extract; b. filtering the extract and subjecting it to chromatography followed by elution with aqueous alcohol, c. concentrating the eluted solvent of step (b) to obtain a paste, followed by redissolving the paste in aromatic solvent to obtain a solution; and d. column adsorption of the solution to obtain a semi-solid mass followed by drying to obtain the pterostilbene. a. pulverizing and extracting of botanical source with aqueous alcohol to obtain an extract; b. filtering the extract and subjecting it to chromatography followed by elution with aqueous alcohol, c. concentrating the eluted solvent of step (b) to obtain a paste, followed by redissolving the paste in aromatic solvent to obtain a solution; and d. column adsorption of the solution to obtain a semi-solid mass followed by drying to obtain the pterostilbene.
An optical recording medium production device (2, 42, 62) in which an information signal layer is provided on a substrate, comprising: a substrate positioning pin (24, 24b) vertically movable that performs positioning to a center hole of the substrate; a substrate holding portion that performs the positioning of the substrate using the substrate positioning pin (24, 24b) to hold the substrate; a cleaner having a gas ejection portion (51 b) that ejects gas toward a surface of the substrate held by the substrate holding portion, and a gas suction portion (51 a) that suctions the gas; and a substrate positioning pin fixing portion (28, 28a, 52, 81) that can press the substrate positioning pin (24, 24b) downward, and is configured so as not to come into contact with an inner circumferential side surface of the center hole of the substrate; wherein the substrate positioning pin fixing portion (28, 28a, 52, 81) descends inside the center hole of the substrate held by the substrate holding portion so as to form a gap in the vicinity of the inner circumferential side surface of the center hole of the substrate, and presses and fixes the substrate positioning pin (24, 24b), and in the state, the cleaner performs the ejection and suction of the gas. a substrate positioning pin (24, 24b) vertically movable that performs positioning to a center hole of the substrate; a substrate holding portion that performs the positioning of the substrate using the substrate positioning pin (24, 24b) to hold the substrate; a cleaner having a gas ejection portion (51 b) that ejects gas toward a surface of the substrate held by the substrate holding portion, and a gas suction portion (51 a) that suctions the gas; and a substrate positioning pin fixing portion (28, 28a, 52, 81) that can press the substrate positioning pin (24, 24b) downward, and is configured so as not to come into contact with an inner circumferential side surface of the center hole of the substrate;
Heat sink for an injection/metering valve having a coolant chamber, which is designed to receive a fluid coolant, wherein the coolant chamber has at least one inlet for feeding in the coolant and at least one outlet for discharging the coolant; wherein the at least one inlet and/or outlet has a pipe segment (20, 22), one end of which extends into the coolant chamber; characterized in that the coolant-chamber end of the pipe segment (20, 22) is beveled, and therefore the coolant-chamber end of the pipe segment (20, 22) is in contact at at least one point along its circumference with a baffle arranged in the coolant chamber, and the end of the pipe segment (20, 22) is spaced apart at another point along its circumference from the baffle.
An endoscope adaptor for being connected to a robot arm of a robotic surgical system through a drape adaptor that puts a drape between the drape adaptor and the robot arm, comprising: a base section for being detachably connected to the drape adaptor; a driven member that is rotatably provided on the base section and is configured to be rotated by a rotation drive section of the robot arm through the drape adaptor; a holding section including a first holding member configured to hold an endoscope and includes a first gear formed on an outer circumference of the first holding member; and a second holding member that rotatably holds the first holding member and the holding section configured to hold the endoscope rotatably about a rotation axis, the endoscope including an insertion section including an image capturing section provided at a distal end of the insertion section and a body section connected to the insertion section, wherein the rotation axis extends in a direction in which the insertion section extends; and a transmission mechanism configured to transmit rotation of the driven member to the holding section configured to hold the endoscope, wherein the driven member includes a helical gear that rotates about a rotation axis in a direction crossing the direction in which the insertion section extends, and the transmission mechanism includes a cylindrical worm gear that meshes with the helical gear of the driven member and a second gear that is provided coaxially with the cylindrical worm gear and meshes with the first gear, such that the transmission mechanism rotates the first holding member of the holding section by rotation of the second gear. a base section for being detachably connected to the drape adaptor; a driven member that is rotatably provided on the base section and is configured to be rotated by a rotation drive section of the robot arm through the drape adaptor; a holding section including a first holding member configured to hold an endoscope and includes a first gear formed on an outer circumference of the first holding member; and a second holding member that rotatably holds the first holding member and the holding section configured to hold the endoscope rotatably about a rotation axis, the endoscope including an insertion section including an image capturing section provided at a distal end of the insertion section and a body section connected to the insertion section, wherein the rotation axis extends in a direction in which the insertion section extends; and a transmission mechanism configured to transmit rotation of the driven member to the holding section configured to hold the endoscope, wherein the driven member includes a helical gear that rotates about a rotation axis in a direction crossing the direction in which the insertion section extends, and the transmission mechanism includes a cylindrical worm gear that meshes with the helical gear of the driven member and a second gear that is provided coaxially with the cylindrical worm gear and meshes with the first gear, such that the transmission mechanism rotates the first holding member of the holding section by rotation of the second gear.
Rectifier arrangement for a generator in a vehicle, with a semiconductor device, comprising a high-efficiency Schottky diode HED with a semiconductor chip, which has trench structures, with a combination of at least one Schottky diode with a further semiconductor element, said combination being mono-lithically integrated in the semiconductor chip, wherein the further semiconductor element is configured as a pn diode in the trench or as a MOS structure in the trench, characterized in that the forward voltage is set by choosing a barrier metal that defines the barrier height (PhiBn) for a Schottky barrier such that a forward voltage in the range of UF = 0.5 to 0.6 volt results and at the same time low reverse currents occur and a barrier height (PhiBn), of 0.65 to 0.75 electronvolt is chosen, for use of the rectifier arrangement for generators in which temperatures above 165°C can occur, but remain below 197°C.
A drilling machine (10; 110) for making an excavation in ground in a drilling direction that is substantially vertical, said drilling machine comprising: an anchor module (22; 122) having at least one anchor element (24; 124) for preventing the anchor module (22; 122) from moving relative to the walls of the excavation in the drilling direction, the anchor module having a longitudinal direction; a drilling module (12; 112) provided with cutter members (14; 114), the drilling module being movable in translation relative to the anchor module in the drilling direction, the module including a spoil suction device that comprises a pump member arranged in the bottom portion of the drilling module. a movement device (50; 150) arranged between the anchor module (22; 122) and the drilling module in order to move the drilling module in translation relative to the anchor module in the drilling direction; the drilling machine being suspended from a lift cable (70; 170) that is fastened to a fastener portion (53; 153) of the drilling module (12; 112), characterized in that the drilling machine is a drill in which the cutter members (14; 114) comprise two pairs of drums (16, 18; 116, 118) that are rotatable about axes of rotation (A, B) that are parallel, distinct, and perpendicular to the drilling direction, and in that the spoil suction device comprises a discharge pipe (45; 145), that is connected to the pump member, that extends inside the drilling module to a top end of the drilling module situated above the anchor module. an anchor module (22; 122) having at least one anchor element (24; 124) for preventing the anchor module (22; 122) from moving relative to the walls of the excavation in the drilling direction, the anchor module having a longitudinal direction; a drilling module (12; 112) provided with cutter members (14; 114), the drilling module being movable in translation relative to the anchor module in the drilling direction, the module including a spoil suction device that comprises a pump member arranged in the bottom portion of the drilling module. a movement device (50; 150) arranged between the anchor module (22; 122) and the drilling module in order to move the drilling module in translation relative to the anchor module in the drilling direction; the drilling machine being suspended from a lift cable (70; 170) that is fastened to a fastener portion (53; 153) of the drilling module (12; 112), characterized in that the drilling machine is a drill in which the cutter members (14; 114) comprise two pairs of drums (16, 18; 116, 118) that are rotatable about axes of rotation (A, B) that are parallel, distinct, and perpendicular to the drilling direction, and in that the spoil suction device comprises a discharge pipe (45; 145), that is connected to the pump member, that extends inside the drilling module to a top end of the drilling module situated above the anchor module.
A method for determining the relative distribution of glucuronidation, iduronidation, and galacturonidation of a population of polypeptides, the method comprising: a) contacting the population of polypeptides with a protease to generate peptides; b) contacting the peptides to a chromatographic support comprising a hydrophobic stationary phase and a positive surface charge; c) contacting the chromatographic support with a weak acid mobile phase gradient to separate the peptides; d) analyzing the separated peptides to determine the relative distribution of glucuronidation, iduronidation, and/or galacturonidation of the peptides. a) contacting the population of polypeptides with a protease to generate peptides; b) contacting the peptides to a chromatographic support comprising a hydrophobic stationary phase and a positive surface charge; c) contacting the chromatographic support with a weak acid mobile phase gradient to separate the peptides; d) analyzing the separated peptides to determine the relative distribution of glucuronidation, iduronidation, and/or galacturonidation of the peptides.
Dielectric insulation medium comprising a dielectric insulation gas, said insulation gas comprising a) a fluoroketone a) containing exactly 5 carbon atoms, in a mixture with b) a dielectric insulation gas component b) different from said fluoroketone a), wherein the dielectric gas component b) is a carrier gas that is present in a larger quantity than the fluoroketone a) and that together with the fluoroketone a) provides a non-linear increase of the dielectric strength of the insulation medium over the sum of dielectric strengths of the gas components of the insulation medium. a) a fluoroketone a) containing exactly 5 carbon atoms, in a mixture with b) a dielectric insulation gas component b) different from said fluoroketone a), wherein the dielectric gas component b) is a carrier gas that is present in a larger quantity than the fluoroketone a) and that together with the fluoroketone a) provides a non-linear increase of the dielectric strength of the insulation medium over the sum of dielectric strengths of the gas components of the insulation medium.
A laminate body comprising: a support; a photocurable acrylic adhesive composition release layer disposed upon and in contact with the support; a photocurable acrylic adhesive composition joining layer disposed upon and in contact with the release layer, the photocurable acrylic adhesive composition of the joining layer being the same as that of the release layer; and a substrate disposed upon and in contact with the joining layer, wherein the release layer includes an amount of an adhesion-modifying agent; wherein the joining layer includes an amount of an adhesion-modifying agent; and wherein the amount of adhesion-modifying agent in the release layer is greater than the amount of adhesion-modifying agent in the joining layer, so as to enable separation of the laminate at the interface between the release layer and the support upon application of a peeling force to the support. a support; a photocurable acrylic adhesive composition release layer disposed upon and in contact with the support; a photocurable acrylic adhesive composition joining layer disposed upon and in contact with the release layer, the photocurable acrylic adhesive composition of the joining layer being the same as that of the release layer; and a substrate disposed upon and in contact with the joining layer, wherein the release layer includes an amount of an adhesion-modifying agent; wherein the joining layer includes an amount of an adhesion-modifying agent; and wherein the amount of adhesion-modifying agent in the release layer is greater than the amount of adhesion-modifying agent in the joining layer, so as to enable separation of the laminate at the interface between the release layer and the support upon application of a peeling force to the support.