mhurhangee/ep-ind-claims huggingface dataset:
A surveillance camera system having a control system, comprising: a surveillance camera having a housing and comprising an image shake correction device to correct an image shake, a pan and tilt mechanism for changing an orientation of the surveillance camera supported by a mount; a camera-side communicator incorporated in the housing, the camera-side communicator receiving a signal from outside of the housing; and an external-side communicator for transmitting a signal to the camera-side communicator from outside, remote from the surveillance camera, characterized in that the image shake correction device is adapted to move a correction element, in accordance with vibration on the housing, the correction element being included in a part of an imaging optical system; a locking device (54, 54a, 56, 56a, 57) is incorporated in the housing, the locking device configured for centering and fixing the correction element on an imaging optical axis, in response to a lock signal transmitted by said external-side communicator and received by the camera-side communicator; and the external-side communicator is adapted to transmit a signal for fixing the surveillance camera toward a preset fixed point direction, if the orientation of the surveillance camera is in a direction other than the fixed point direction when a lock signal that causes the locking device to operate is received. a surveillance camera having a housing and comprising an image shake correction device to correct an image shake, a pan and tilt mechanism for changing an orientation of the surveillance camera supported by a mount; a camera-side communicator incorporated in the housing, the camera-side communicator receiving a signal from outside of the housing; and an external-side communicator for transmitting a signal to the camera-side communicator from outside, remote from the surveillance camera, characterized in that the image shake correction device is adapted to move a correction element, in accordance with vibration on the housing, the correction element being included in a part of an imaging optical system; a locking device (54, 54a, 56, 56a, 57) is incorporated in the housing, the locking device configured for centering and fixing the correction element on an imaging optical axis, in response to a lock signal transmitted by said external-side communicator and received by the camera-side communicator; and the external-side communicator is adapted to transmit a signal for fixing the surveillance camera toward a preset fixed point direction, if the orientation of the surveillance camera is in a direction other than the fixed point direction when a lock signal that causes the locking device to operate is received.
A counter-flow heat exchanger core comprising: a first wall defining a longitudinal axis; a first flow path defined within the first wall, wherein the first flow path includes a primary flow inlet and a primary flow outlet downstream from the primary flow inlet; at least two hollow vanes circumferentially spaced apart and extending in a radially inward direction from the first wall, wherein each of the at least two hollow vanes includes a first vane wall and a second vane wall; a second flow path defined within the at least two hollow vanes between the first vane wall and second vane wall of each of the at least two hollow vanes; and at least one fin extending between two of the at least two hollow vanes; characterized in that the at least one fin is at least one non-linear fin that includes a plurality of non-linear fins between two of the hollow vanes, wherein the plurality of non-linear fins are variably spaced apart in a radial direction to the first wall. a first wall defining a longitudinal axis; a first flow path defined within the first wall, wherein the first flow path includes a primary flow inlet and a primary flow outlet downstream from the primary flow inlet; at least two hollow vanes circumferentially spaced apart and extending in a radially inward direction from the first wall, wherein each of the at least two hollow vanes includes a first vane wall and a second vane wall; a second flow path defined within the at least two hollow vanes between the first vane wall and second vane wall of each of the at least two hollow vanes; and at least one fin extending between two of the at least two hollow vanes; characterized in that the at least one fin is at least one non-linear fin that includes a plurality of non-linear fins between two of the hollow vanes, wherein the plurality of non-linear fins are variably spaced apart in a radial direction to the first wall.
A fabric filter system comprising an actuator, a controlled entity, a wall, a closed space (5, 7), limited by the wall and a sealing system having a sealing device with a control rod, passing through an aperture in the wall, wherein the control rod is attached between the actuator, placed on one side of the wall, and the controlled entity, placed on the other side of the wall, such that the actuator is configured to control the controlled entity with mainly linear motion of the control rod through the wall, characterised by the sealing device including a packing box gas tightly sealed around the control rod with the packing box and control rod moveable in relation to the wall; and a flexible member at one end thereof is gas tightly joined to or integrally formed with the packing box and at the opposed end thereof gas tightly secured to the wall, such that a wall aperture is sized that play between an inner edge of the wall and the control rod is enabled, wherein the packing box has an opening with a firm gastight seal in the form of one or more sealing rings that provides a seal around the control rod.
Cup spring device for a motor vehicle clutch, the cup spring device comprising a cup spring with a plurality of substantially radially running cup spring tongues with radially inwardly pointing inner ends, and a rocker pressure piece for the double-acting actuation of the cup spring tongues by means of engaging around the rocker pressure piece and the cup spring on both sides axially with respect to the clutch, it being possible for the rocker pressure piece to be moved in the axial direction with respect to the clutch by way of an actuator body, the rocker pressure piece being of substantially single-piece configuration and, in the region of the inner ends, being embedded in a positively locking manner into the cup spring along both axial directions with respect to the clutch, characterized in that the inner ends of a frontside group of cup spring tongues on an axial front side of the rocker pressure piece with respect to the clutch and the inner ends (3") of a rear-side group (2") of cup spring tongues on an axial rear side of the rocker pressure piece with respect to the clutch, which rear side lies opposite the front side, are brought into contact in such a way that the inner ends (3', 3") of the two groups (2', 2") of cup spring tongues engage around the rocker pressure piece in an enclosing manner in both axial directions with respect to the clutch, the rocker pressure piece being set up to engage around an actuator body of the clutch in a radially enclosing manner, in such a way that the actuator body and the rocker pressure piece can be connected to one another in a positively locking manner by means of the radially enclosing engagement, and in each case one circumferential groove (9, 10) being arranged on the inner circumference of the rocker pressure piece and on the outer circumference of the actuator body, it being possible for a resilient wire ring to be arranged in the grooves (9, 10) so as to engage over both grooves (9, 10), in such a way that the rocker pressure piece and the actuator body can be connected in a positively locking manner by means of the wire ring in an axial direction with respect to the clutch.
A cross-linkable nitrile rubber composition comprising a highly saturated nitrile rubber with a Mooney viscosity (ML 1+4, 100°C) of 10 to 45 and an iodine value of 120 or less, an unsaturated carboxylic acid metal salt, and an organic peroxide cross-linking agent, wherein the highly saturated nitrile rubber has a branching index η2-η1 of 20,000 Pa·s or less, the highly saturated nitrile rubber has a molecular weight distribution (Mw/Mn) of 1.8 to 10, the highly saturated nitrile rubber is produced by performing a high shear treatment in the presence of an antiaging agent, the amount of a rubber other than the highly saturated nitrile rubber in the cross-linkable nitrile rubber composition is 10 parts by weight or less with respect to 100 parts by weight of the highly saturated nitrile rubber, the Mooney viscosity (ML 1+4, 100°C) is measured in accordance with JIS K6300-1, the iodine value is measured in accordance with JIS K 6235, the branching index is measured using a complex viscosity η 1 which is measured using a viscoelasticity measuring device at 100°C, a frequency of 1 Hz, dynamic strain of 7.0%, and shear velocity of 0.44 s -1, and a complex viscosity η 2 which is measured using a viscoelasticity measuring device at 100°C, a frequency of 1 Hz, dynamic strain of 473.0%, and shear velocity of 29.7 s -1, and the molecular weight distribution (Mw/Mn) is calculated using Mw and Mn which are measured by gel permeation chromatography as values converted to standard polystyrene. a highly saturated nitrile rubber with a Mooney viscosity (ML 1+4, 100°C) of 10 to 45 and an iodine value of 120 or less, an unsaturated carboxylic acid metal salt, and an organic peroxide cross-linking agent, wherein the highly saturated nitrile rubber has a branching index η2-η1 of 20,000 Pa·s or less, the highly saturated nitrile rubber has a molecular weight distribution (Mw/Mn) of 1.8 to 10, the highly saturated nitrile rubber is produced by performing a high shear treatment in the presence of an antiaging agent, the amount of a rubber other than the highly saturated nitrile rubber in the cross-linkable nitrile rubber composition is 10 parts by weight or less with respect to 100 parts by weight of the highly saturated nitrile rubber, the Mooney viscosity (ML 1+4, 100°C) is measured in accordance with JIS K6300-1, the iodine value is measured in accordance with JIS K 6235, the branching index is measured using a complex viscosity η 1 which is measured using a viscoelasticity measuring device at 100°C, a frequency of 1 Hz, dynamic strain of 7.0%, and shear velocity of 0.44 s -1, and a complex viscosity η 2 which is measured using a viscoelasticity measuring device at 100°C, a frequency of 1 Hz, dynamic strain of 473.0%, and shear velocity of 29.7 s -1, and the molecular weight distribution (Mw/Mn) is calculated using Mw and Mn which are measured by gel permeation chromatography as values converted to standard polystyrene.
An antibody that specifically binds human DLL4, which is; (a) Antibody 21 M18 H7L2 encoded by the plasmid deposited under ATCC deposit no. PTA-8425; (b) Antibody 21 M18 H9L2 encoded by the plasmid deposited under ATCC deposit no.PTA-8427; or (c) A monoclonal antibody comprising: a heavy chain variable region comprising CDR amino acid sequences CDR1, CDR2 and CDR3, wherein CDR1 is SEQ ID NO: 1; CDR2 is SEQ ID NO: 3, SEQ ID NO: 2, or SEQ ID NO: 4; and CDR3 is SEQ ID NO: 5; and a light chain variable region comprising CDR amino acid sequences CDR1, CDR2 and CDR3, wherein CDR1 is SEQ ID NO: 9; CDR2 is SEQ ID NO: 10; and CDR3 is SEQ ID NO: 11. (a) Antibody 21 M18 H7L2 encoded by the plasmid deposited under ATCC deposit no. PTA-8425; (b) Antibody 21 M18 H9L2 encoded by the plasmid deposited under ATCC deposit no.PTA-8427; or (c) A monoclonal antibody comprising: a heavy chain variable region comprising CDR amino acid sequences CDR1, CDR2 and CDR3, wherein CDR1 is SEQ ID NO: 1; CDR2 is SEQ ID NO: 3, SEQ ID NO: 2, or SEQ ID NO: 4; and CDR3 is SEQ ID NO: 5; and a light chain variable region comprising CDR amino acid sequences CDR1, CDR2 and CDR3, wherein CDR1 is SEQ ID NO: 9; CDR2 is SEQ ID NO: 10; and CDR3 is SEQ ID NO: 11. a heavy chain variable region comprising CDR amino acid sequences CDR1, CDR2 and CDR3, wherein CDR1 is SEQ ID NO: 1; CDR2 is SEQ ID NO: 3, SEQ ID NO: 2, or SEQ ID NO: 4; and CDR3 is SEQ ID NO: 5; and a light chain variable region comprising CDR amino acid sequences CDR1, CDR2 and CDR3, wherein CDR1 is SEQ ID NO: 9; CDR2 is SEQ ID NO: 10; and CDR3 is SEQ ID NO: 11.
Polymer compositions, comprising A) 10 to 99.9 wt. %, based on the weight of A) and B), of a semi- aromatic polyamide, B) a graphene material, C) 0 to 600 wt. %, based on the weight of component A) of a polyamide different from component A, and D) 0 to 65 wt. %, based on the weight of the composition, of a filler. A) 10 to 99.9 wt. %, based on the weight of A) and B), of a semi- aromatic polyamide, B) a graphene material, C) 0 to 600 wt. %, based on the weight of component A) of a polyamide different from component A, and D) 0 to 65 wt. %, based on the weight of the composition, of a filler.
Stator of a dry vacuum pump, the vacuum pump having at least two rotors (10, 11) capable of rotating in a synchronized manner in opposite directions in a central housing of the stator to drive a gas to be pumped between a suction inlet (4, 5) and a delivery outlet of the stator, characterized in that the stator comprises: - an outside part of the stator made of cast iron containing less than 5% nickel, and - a stator insert wherein is arranged the central housing configured to receive the rotors (10, 11) of the vacuum pump, the stator insert containing at least 10% nickel, - the outside part of the stator having been cast on the stator insert. - an outside part of the stator made of cast iron containing less than 5% nickel, and - a stator insert wherein is arranged the central housing configured to receive the rotors (10, 11) of the vacuum pump, the stator insert containing at least 10% nickel, - the outside part of the stator having been cast on the stator insert.
A patient support comprising at least one deck section, at least one fluid receiving cushion coupled to the at least one deck section, a weight sensor configured to detect the weight of a patient supported by the at least one fluid receiving cushion, an angle sensor configured to determine an angle of the at least one deck section, a controller (1052 1) configured to receive input from the weight sensor and the angle sensor and to set an inflation pressure for the at least one fluid receiving cushion, wherein the weight sensor includes a first force sensor operably coupled to the deck and configured to provide a first force output indicative of force applied to the deck, and wherein the controller (1052 1) includes a processor configured to determine a frst measured weight of the patient in response to the first force sensor output, characterised in that the weight sensor includes a second force sensor operably coupled to a seat section of the deck and configured to provide a second force output indicative of force applied to the seat section; in that the processor is configured to determine a second measured weight of the patient in response to the second force sensor output, and in that the processor is further configured to provide a diagnostic output if a differential between the first measured weight and the second measured weight exceeds a predetermined value.
A dental light irradiation device, comprising a light source for emitting blue light, sensing means for sensing a change of a position of the device, and an indicator for physically indicating the position change, wherein the sensing means comprises a sensor for measuring a physical quantity, wherein the sensing means comprises a photodiode, the sensor being connected to a controller of the device that is configured to interpret a change of the physical quantity as a position change of the device, wherein the physical quantity is a light intensity as detectable by the photo diode, wherein a magnitude of the physical quantity change is converted into a magnitude of the position change, and wherein in operation for irradiating light, the light device: causes the sensor to measure a series of physical quantities Q 1 to Q n; compares a reference value and a determined value, wherein the reference value is derived from one or more of the measured physical quantities Q 1 to Q n-1 and the determined value is derived from Q n; and activates the indicator or leaves the indicator inactivated depending on the result of the comparison; and wherein the device is configured such that the position change is indicated upon the position change exceeding a predetermined threshold. causes the sensor to measure a series of physical quantities Q 1 to Q n; compares a reference value and a determined value, wherein the reference value is derived from one or more of the measured physical quantities Q 1 to Q n-1 and the determined value is derived from Q n; and activates the indicator or leaves the indicator inactivated depending on the result of the comparison; and wherein the device is configured such that the position change is indicated upon the position change exceeding a predetermined threshold.
A flask stand (400, 500) configured to support a flask, the flask stand (400, 500) comprising: a base ring (404, 504) configured to support a lower portion of the flask; and a plurality of legs (410, 510), each leg (410, 510) secured to the base ring (404, 504) and extending outward from the base ring (404, 504), each leg (410, 510) comprising: a body (420, 522) having a first end portion secured the base ring (404, 504) and a foot portion opposite the first end portion; a lattice (424, 524) formed within the foot portion, the lattice (424, 524) including a plurality of members that form an open-mesh frame defining a plurality of voids (25, 428, 528) between adjacent members of the frame; and an elastomeric foot (430, 530) formed of an elastomer disposed about the lattice (424, 524) and within the voids (25, 428, 528) of the lattice (424, 524), the foot (430, 530) configured to engage a surface to support the body (420, 522) relative to the surface. a base ring (404, 504) configured to support a lower portion of the flask; and a plurality of legs (410, 510), each leg (410, 510) secured to the base ring (404, 504) and extending outward from the base ring (404, 504), each leg (410, 510) comprising: a body (420, 522) having a first end portion secured the base ring (404, 504) and a foot portion opposite the first end portion; a lattice (424, 524) formed within the foot portion, the lattice (424, 524) including a plurality of members that form an open-mesh frame defining a plurality of voids (25, 428, 528) between adjacent members of the frame; and an elastomeric foot (430, 530) formed of an elastomer disposed about the lattice (424, 524) and within the voids (25, 428, 528) of the lattice (424, 524), the foot (430, 530) configured to engage a surface to support the body (420, 522) relative to the surface. a body (420, 522) having a first end portion secured the base ring (404, 504) and a foot portion opposite the first end portion; a lattice (424, 524) formed within the foot portion, the lattice (424, 524) including a plurality of members that form an open-mesh frame defining a plurality of voids (25, 428, 528) between adjacent members of the frame; and an elastomeric foot (430, 530) formed of an elastomer disposed about the lattice (424, 524) and within the voids (25, 428, 528) of the lattice (424, 524), the foot (430, 530) configured to engage a surface to support the body (420, 522) relative to the surface.
Light-guide and cover element, in particular for use in connection with a dashboard of a motor vehicle, the light-guide and cover element comprising a first part and a second part, the first part of the light-guide and cover element being made of a first, transparent substance, the second part of the light-guide and cover element being made of a second, opaque substance, the first part of the light-guide and cover element and the second part of the light-guide and cover element being formed integrally, characterised in that the second substance has the property of being more flexible than the first substance.
A nucleotide sequence encoding - from 5' to 3' - a transmembrane protein OD - -TD - ED wherein OD is an oligomerization domain selected from the group consisting of an isoleucine zipper and a trimerization domain of T4 fibritin, L is a linker, which optionally is present, TD is a transmembrane domain derived from CD154 or from any type II transmembrane protein, and ED is an extracellular domain of CD154 with the proviso that the nucleotide sequence does not comprise SEQ ID NO: 16, i.e. a sequence capable of encoding the intracellular region of CD154, nor the intracellular region of CD40. OD is an oligomerization domain selected from the group consisting of an isoleucine zipper and a trimerization domain of T4 fibritin, L is a linker, which optionally is present, TD is a transmembrane domain derived from CD154 or from any type II transmembrane protein, and ED is an extracellular domain of CD154
A method of warming a heat exchanger array of a very low temperature refrigeration system, the method comprising: diverting at least a portion of refrigerant flow in the refrigeration system away from a refrigerant flow circuit used during very low temperature cooling operation of the refrigeration system, to effect warming of at least a portion of the heat exchanger array; characterized in that the method comprises, while diverting the at least a portion of refrigerant flow, preventing excessive refrigerant mass flow through a compressor of the refrigeration system, the preventing excessive refrigerant mass flow comprising one of: (a) operating a buffer valve to permit refrigerant to be stored in at least one of an expansion tank and a buffer tank of the refrigeration system; (b) applying a variable speed drive to the compressor; (c) blocking mass flow into at least one cylinder of the compressor, the compressor being a reciprocating type compressor; (d) separating at least two scrolls of the compressor from each other, the compressor being a scroll type compressor; and (e) reducing mass flow or curtailing operation of at least one compressor of multiple compressors of the refrigeration system. diverting at least a portion of refrigerant flow in the refrigeration system away from a refrigerant flow circuit used during very low temperature cooling operation of the refrigeration system, to effect warming of at least a portion of the heat exchanger array; characterized in that the method comprises, while diverting the at least a portion of refrigerant flow, preventing excessive refrigerant mass flow through a compressor of the refrigeration system, the preventing excessive refrigerant mass flow comprising one of: (a) operating a buffer valve to permit refrigerant to be stored in at least one of an expansion tank and a buffer tank of the refrigeration system; (b) applying a variable speed drive to the compressor; (c) blocking mass flow into at least one cylinder of the compressor, the compressor being a reciprocating type compressor; (d) separating at least two scrolls of the compressor from each other, the compressor being a scroll type compressor; and (e) reducing mass flow or curtailing operation of at least one compressor of multiple compressors of the refrigeration system.