mhurhangee/ep-ind-claims huggingface dataset:
A combination of a sealing structure and first and second components of a device, the second component being removable from the first component to gain access to an interior of the device, the sealing structure comprising: a body composed of compressible material, an axial seal portion integral with the body and constructed and arranged to be compressed to define an axial seal between the first and second components, a radial seal portion integral with the body and constructed and arranged to be compressed to define a radial seal between the first and second components, and a lip seal portion integral with the body and constructed and arranged to be compressed to define a lip seal between the first and second components, wherein, the combination prevents fluid and debris from entering the interior, whereby the first component is a housing having a planar surface and the second component is a cover having a first planar surface, and a second planar surface disposed transversely with respect to the first planar surface, such that when the cover is secured to the housing with the sealing structure disposed between the planar surface of the housing and the first planar surface of the cover, the axial seal portion is compressed axially, defining an axial seal against the first planar surface, and the radial seal portion is compressed radially, defining a radial seal against the second planar surface, characterised in that the lip seal portion is compressed to define a lip seal against the first planar surface. a body composed of compressible material, an axial seal portion integral with the body and constructed and arranged to be compressed to define an axial seal between the first and second components, a radial seal portion integral with the body and constructed and arranged to be compressed to define a radial seal between the first and second components, and a lip seal portion integral with the body and constructed and arranged to be compressed to define a lip seal between the first and second components, wherein, the combination prevents fluid and debris from entering the interior, whereby the first component is a housing having a planar surface and the second component is a cover having a first planar surface, and a second planar surface disposed transversely with respect to the first planar surface, such that when the cover is secured to the housing with the sealing structure disposed between the planar surface of the housing and the first planar surface of the cover, the axial seal portion is compressed axially, defining an axial seal against the first planar surface, and the radial seal portion is compressed radially, defining a radial seal against the second planar surface, characterised in that the lip seal portion is compressed to define a lip seal against the first planar surface.
Device for separating portions from cylindrical workpieces, comprising a clamping arrangement for clamping the workpiece and a height-adjustable separation device which can be placed radially against the workpiece and by means of which at least one portion can be separated from the workpiece by a horizontal cut, the portion to be separated being located below the cutting plane, wherein the clamping arrangement comprises clamping elements that can be placed radially against the upper region of the workpiece, characterised in that the clamping arrangement also comprises height-adjustable axial lifting elements which can be moved to below the underside (11.1) of the workpiece, so that a plurality of portions can be separated successively by horizontal cuts from below to above by means of the separation device, and the separated portions and any remaining portion of the workpiece can be removed from the device as a stack.
A vehicle cooling circuit for cooling a temperature-increasing device, in particular a battery, by means of a coolant conducted in a coolant circuit, wherein the coolant circuit has a coolant line, at least one chiller, a coolant pump and at least one heat exchanger configured as an evaporator via which the coolant circuit is coupled to a cooling medium circuit which additionally comprises a cooling medium line, at least one compressor, at least one condenser and at least one relief valve, characterized in that the at least one chiller is arranged downstream of the at least one heat exchanger in the direction of flow of the coolant in the coolant circuit; and in that at least one bypass valve is arranged in the coolant line such that the coolant can be conducted fully or partially past the at least one chiller, wherein the chiller as well as the condenser are associated with a cooling air flow, which can be generated by a fan.
Valve device (1; 21) having a main valve (2; 22) and a pilot control valve (3; 23) which comprises a closing body which can be actuated by way of an armature, in order to connect a first pressure connector of the valve device (1; 21) to a second pressure connector of the valve device (1; 21), the armature being loaded by way of an armature spring device at an end which faces away from the closing body of the pilot control valve (3; 23), which armature spring device is clamped in between a pole tube and the armature in an axial direction, the armature having an armature part which can be actuated via a driver device of the armature after an armature free travel, characterized in that the armature spring device produces at least two armature stroke regions (91, 92) with two different spring stiffnesses.
An apparatus to determine the concentration of a target component in a mixture, the apparatus including: at least one acoustic transducer located within the mixture: a controller generating a signal for the at least one acoustic transducer generating an acoustic signal in the mixture, operating at a fixed voltage and frequency and transmitting same toward the target component within the mixture, wherein the acoustic signal is generated with a known power level; and a processor for measuring change in the power level of the at least one acoustic transducer that is required to maintain the at least one acoustic transducer at the fixed voltage and frequency as the acoustic signal is transmitted through the mixture, wherein the magnitude of the change in power level of the at least one acoustic transducer determines the concentration of the target component in the mixture. at least one acoustic transducer located within the mixture: a controller generating a signal for the at least one acoustic transducer generating an acoustic signal in the mixture, operating at a fixed voltage and frequency and transmitting same toward the target component within the mixture, wherein the acoustic signal is generated with a known power level; and a processor for measuring change in the power level of the at least one acoustic transducer that is required to maintain the at least one acoustic transducer at the fixed voltage and frequency as the acoustic signal is transmitted through the mixture, wherein the magnitude of the change in power level of the at least one acoustic transducer determines the concentration of the target component in the mixture.
An electrospinning apparatus for producing ultrafine fibers, comprising: a high voltage supplier to apply high voltage to a spinning nozzle to charge a solution containing a dissolved polymer material; a solution transfer pump for transferring the solution stored in a syringe to the spinning nozzle including at least one hollow needle to receive the charged solution and jet the charged solution in the form of filaments; a collector being positioned under the spinning nozzle to collect charged filaments; wherein the solution transfer pump includes: a plunger being pushed by a pusher block attached to a screw to transfer the solution in a barrel of the syringe to the spinning nozzle, and being driven by a motor, a cylindrical metal guide being positioned around the hollow needle at the lower end of the spinning nozzle, wherein high voltage is applied to the cylindrical metal guide to control droplet stability of the charged solution; and a strip-shaped metal guide including a plurality of strip-shaped metal plates radially arranged around the cylindrical metal guide and extending in a direction perpendicular to a nozzle arrangement direction. a high voltage supplier to apply high voltage to a spinning nozzle to charge a solution containing a dissolved polymer material; a solution transfer pump for transferring the solution stored in a syringe to the spinning nozzle including at least one hollow needle to receive the charged solution and jet the charged solution in the form of filaments; a collector being positioned under the spinning nozzle to collect charged filaments; wherein the solution transfer pump includes: a plunger being pushed by a pusher block attached to a screw to transfer the solution in a barrel of the syringe to the spinning nozzle, and being driven by a motor, a cylindrical metal guide being positioned around the hollow needle at the lower end of the spinning nozzle, wherein high voltage is applied to the cylindrical metal guide to control droplet stability of the charged solution; and a strip-shaped metal guide including a plurality of strip-shaped metal plates radially arranged around the cylindrical metal guide and extending in a direction perpendicular to a nozzle arrangement direction.
A process for manufacturing a shoe (300; 500; 1200) comprising the following steps: (i) providing at least one main liner (5; 600) in a textile piece, having a sole part (10; 610); (ii) placing at least the first main liner (5; 600) on a preform; (iii) joining an outsole (100; 550) to the sole part (10; 610) of the first main liner (5; 600); (iv) providing at least one first auxiliary liner (200; 700) in a textile piece, at least part or all of which is thermofusible and has a melting temperature T1 (°C); (v) arranging the first auxiliary liner (200; 700) on the first main liner (5; 600) and the outsole (100; 550) so as to cover, at least partially, the first main liner (5; 600), the outsole (100; 550), and the junction (150; 580) between the first main liner (100; 550) and the outsole (100; 550); (vi) subjecting the assembly comprising the first auxiliary liner (200; 700), the first main liner (5; 600), and the outsole (100; 550), placed on the preform, to a heating temperature Tc greater than or equal to the temperature T1 so as to achieve melting of the thermofusible part or of the entire first auxiliary liner (200; 700); (vii) removing the assembly from the preform and recovering the shoe. (i) providing at least one main liner (5; 600) in a textile piece, having a sole part (10; 610); (ii) placing at least the first main liner (5; 600) on a preform; (iii) joining an outsole (100; 550) to the sole part (10; 610) of the first main liner (5; 600); (iv) providing at least one first auxiliary liner (200; 700) in a textile piece, at least part or all of which is thermofusible and has a melting temperature T1 (°C); (v) arranging the first auxiliary liner (200; 700) on the first main liner (5; 600) and the outsole (100; 550) so as to cover, at least partially, the first main liner (5; 600), the outsole (100; 550), and the junction (150; 580) between the first main liner (100; 550) and the outsole (100; 550); (vi) subjecting the assembly comprising the first auxiliary liner (200; 700), the first main liner (5; 600), and the outsole (100; 550), placed on the preform, to a heating temperature Tc greater than or equal to the temperature T1 so as to achieve melting of the thermofusible part or of the entire first auxiliary liner (200; 700); (vii) removing the assembly from the preform and recovering the shoe.
A structure having plural conductive regions insulated electrically from each other, comprising a movable piece supported movably above the upper face of at least one of the conductive regions, the movable piece having an electrode (301, 307) in opposition to the at least one conductive region, the structure being constructed to be capable of emitting and receiving electric signals through the faces of the conductive regions opposed to the movable piece, characterized in that the plural conductive regions are electrically insulated from each other and mechanically connected via oxide regions having rows of through-holes (103, 210) or grooves (103, 211) arranged such that mechanical connection is effected via sequentially arranged partition walls between adjacent though holes, or partition walls between adjacent grooves and bottom portions below said grooves, respectively ranging straight across the rows. a movable piece supported movably above the upper face of at least one of the conductive regions, the movable piece having an electrode (301, 307) in opposition to the at least one conductive region, the structure being constructed to be capable of emitting and receiving electric signals through the faces of the conductive regions opposed to the movable piece, characterized in that the plural conductive regions are electrically insulated from each other and mechanically connected via oxide regions having rows of through-holes (103, 210) or grooves (103, 211) arranged such that mechanical connection is effected via sequentially arranged partition walls between adjacent though holes, or partition walls between adjacent grooves and bottom portions below said grooves, respectively ranging straight across the rows.
A method of dynamic bandwidth allocation, DBA, in a 10-Gigabit passive optical network, XGPON, comprising: acquiring an upstream data size and a dynamic bandwidth report, DBRU, of a current transmission container, TCONT, estimating a bandwidth estimation value of the current TCONT; and performing a bandwidth allocation calculation according to the bandwidth estimation value of the current TCONT and service level agreement, SLA, information configured in advance, to obtain a bandwidth allocation value of the current TCONT; characterized in that, the estimating a bandwidth estimation value of the current TCONT is estimating the bandwidth estimation value of the current TCONT on the basis of a formula that is act(n) = 2* dbru(n) - dbru(n-1) -pm(n-1) * pm(n-1)/(9720*k); wherein act(n) is a bandwidth estimation value of the current TCONT in a nth DBA period, dbru(n) is a data buffer value of the current TCONT in the nth DBA period, dbru(n-1) is a data buffer value of the current TCONT in a (n-1)th DBA period, pm(n-1) is an upstream data size that is obtained by an Optical Line Terminal, OLT, in a statistics manner in the (n-1)th DBA period, and which is the payload without containing any overhead, k is a DBA scheduling period. acquiring an upstream data size and a dynamic bandwidth report, DBRU, of a current transmission container, TCONT, estimating a bandwidth estimation value of the current TCONT; and performing a bandwidth allocation calculation according to the bandwidth estimation value of the current TCONT and service level agreement, SLA, information configured in advance, to obtain a bandwidth allocation value of the current TCONT; characterized in that, the estimating a bandwidth estimation value of the current TCONT is estimating the bandwidth estimation value of the current TCONT on the basis of a formula that is act(n) = 2* dbru(n) - dbru(n-1) -pm(n-1) * pm(n-1)/(9720*k); wherein act(n) is a bandwidth estimation value of the current TCONT in a nth DBA period, dbru(n) is a data buffer value of the current TCONT in the nth DBA period, dbru(n-1) is a data buffer value of the current TCONT in a (n-1)th DBA period, pm(n-1) is an upstream data size that is obtained by an Optical Line Terminal, OLT, in a statistics manner in the (n-1)th DBA period, and which is the payload without containing any overhead, k is a DBA scheduling period.
Method for producing a structured element by means of material-removing machining of a workpiece with pulsed laser radiation, the workpiece consisting of a workpiece material that is transparent to the laser radiation, the laser radiation being radiated into the workpiece from a radiation entry side and, in the area of a rear side of the workpiece located opposite the radiation entry side, being focused within the workpiece in a focus area in such a way that workpiece material is removed in the focus area by multi-photon absorption, ultra-short-pulse laser radiation being radiated in for the material-removing machining, characterized in that the rear side of the workpiece, at least in a machining area comprising the focus area, during machining is brought into contact with a free-flowing liquid that is transparent to the laser radiation, wherein at least a part of the liquid is set flowing in a direction towards the machining area in such a way that the liquid flows into the machining area at an acute angle of 60° or less to the rear side, such that structured elements having very fine and cleanly defined three-dimensional surface structures are created.
A monitoring apparatus configured to monitor a processing status of a food item under processing in a food processor, the monitoring apparatus comprising: a sensor operable to determine characteristic information related to the food item in the food processor, the characteristic information being associated with a nutrient trend of the food item; a controller configured to provide a control signal to the food processor to control a food item processing operation of the food processor when the determined characteristic information or a rate of change of characteristic information meets a predetermined criteria, characterized in that the characteristic information includes at least one of the following: a particle size value, an electrical conductivity value, a pH value, a dry matter value, and a soluble solids content value. a sensor operable to determine characteristic information related to the food item in the food processor, the characteristic information being associated with a nutrient trend of the food item; a controller configured to provide a control signal to the food processor to control a food item processing operation of the food processor when the determined characteristic information or a rate of change of characteristic information meets a predetermined criteria, characterized in that the characteristic information includes at least one of the following: a particle size value, an electrical conductivity value, a pH value, a dry matter value, and a soluble solids content value.
A fan blade capable of dissipating a buildup of electrostatic charge, the fan blade comprising: a fan blade body having a blade component and an airfoil root; and a conductive ground tab attached to the airfoil root; characterised in that the blade component of the fan blade body is covered with an electrostatic dissipative coating, and in that a conductive flow path is attached to the conductive ground tab and runs along the airfoil root and a lower portion of the blade component of the fan blade body. a fan blade body having a blade component and an airfoil root; and a conductive ground tab attached to the airfoil root; characterised in that the blade component of the fan blade body is covered with an electrostatic dissipative coating, and in that a conductive flow path is attached to the conductive ground tab and runs along the airfoil root and a lower portion of the blade component of the fan blade body.
An armrest apparatus for a motor vehicle, the armrest apparatus comprising: an armrest main base; and a translating docking station arrangement operatively coupled to the armrest main base to move relative to the armrest main base between a retracted position and a deployed position, wherein the translating docking station arrangement in the retracted position substantially covers the armrest main base characterized in that the translating docking station arrangement is configured to hold a nomadic device and wherein the translating docking station arrangement in the deployed position is shifted laterally relative to the retracted position. an armrest main base; and a translating docking station arrangement operatively coupled to the armrest main base to move relative to the armrest main base between a retracted position and a deployed position, wherein the translating docking station arrangement in the retracted position substantially covers the armrest main base
Security element with a UV-excitable effect comprising a structure colour, which in turn comprises microcapsules in which colloidal particles are contained, which can be arranged and/or rearranged relative to each other in a crystalline structure by means of a structural excitation, which comprises a forming of an electrical and/or magnetic field, wherein the crystalline structure has reflective and/or transmissive properties for light which can be influenced and/or adjusted via the structural excitation, wherein additionally luminescence pigments are provided, which display a luminescence in the case of a luminescence excitation which occurs by way of an irradiation of UV light, and the luminescence pigments are arranged in such a way that an observable luminescence is dependent on the structural excitation by means of the electrical and/or magnetic field.
Fluid-actuated rotary actuator device, comprising a housing in which a working chamber, which has at least partially a circular external contour extending concentrically in a main circumferential direction around a central axis, is formed, wherein a swivel piston of the rotary actuator device, which is non-rotatably connected to a drive member of the rotary actuator device accessible from outside the housing and which is pivotable about the central axis while performing a swivelling movement, is accommodated in the working chamber, and further comprising a space divider and stop unit, which, while adopting an operating position, can be or is installed into the working chamber in a fixed manner in such a way that it divides the working chamber together with the swivel piston into two drive chambers (33a, 33b), to which a drive fluid can be applied in a controlled manner for causing the swivelling movement of the swivel piston, and that it simultaneously predetermines the maximum possible swivelling angle of the swivel piston, wherein the space divider and stop unit comprises a space divider element fixed to the housing in the operating position while forming a seal and at least one stop element, which is separate from the space divider element and which can be or is mounted on the space divider element at a mounting interface (45a, 45b) while adopting a stop position on at least one of the two sides oriented in the main circumferential direction, characterised in that each stop element is in its stop position secured to the space divider element by exclusively acting together with the space divider element by means of a latching connection in which latching connection means (49a, 49b) formed on the stop element are in positive latching engagement with complementary latching connection means (46a, 46b) formed on the space divider element.