mhurhangee/ep-ind-claims huggingface dataset:
Method for shot preening a pipe inner wall of a curved workpiece having a workpiece bore, comprising at least the following steps: a) providing a blast nozzle unit which has a blast nozzle head which is connected to a flexible blasting agent supply hose and which has a plurality of nozzle openings distributed over the circumference and which, by way of its outer circumference, maintains a distance from the workpiece inner wall for forming an air gap, b) blasting by conveying a blasting agent through the blasting agent supply hose to the blasting nozzle head by means of compressed air and blasting the blasting agent onto the workpiece inner wall; c) wherein at least one end region of the blasting agent supply hose, which end region is adjacent to the blasting nozzle head, is guided through a supporting element; d) wherein the supporting element is attached to a workpiece end or the workpiece end is attached to the supporting element; e) wherein the blasting agent supply hose, together with the blasting nozzle head, is inserted into the workpiece bore and is advanced along a blasting treatment section within the workpiece bore and then retracted into the supporting element again, wherein the blasting agent is output through the nozzle openings during the advancing movement and/or during the retracting movement; and f) wherein the supporting element is retracted from the workpiece end or the workpiece end is retracted from the supporting element; characterized in that the blasting agent supply hose, at its end which is averted from the blasting nozzle head, is connected to a rigid blasting agent supply pipe, and wherein the unit comprising the blasting agent supply hose and the blasting agent supply pipe is guided within the supporting element in a displaceable manner. a) providing a blast nozzle unit which has a blast nozzle head which is connected to a flexible blasting agent supply hose and which has a plurality of nozzle openings distributed over the circumference and which, by way of its outer circumference, maintains a distance from the workpiece inner wall for forming an air gap, b) blasting by conveying a blasting agent through the blasting agent supply hose to the blasting nozzle head by means of compressed air and blasting the blasting agent onto the workpiece inner wall; c) wherein at least one end region of the blasting agent supply hose, which end region is adjacent to the blasting nozzle head, is guided through a supporting element; d) wherein the supporting element is attached to a workpiece end or the workpiece end is attached to the supporting element; e) wherein the blasting agent supply hose, together with the blasting nozzle head, is inserted into the workpiece bore and is advanced along a blasting treatment section within the workpiece bore and then retracted into the supporting element again, wherein the blasting agent is output through the nozzle openings during the advancing movement and/or during the retracting movement; and f) wherein the supporting element is retracted from the workpiece end or the workpiece end is retracted from the supporting element;
An electrostatic atomizing device comprising: a discharge electrode; an opposed electrode spaced from said discharge electrode; a liquid supplying means configured to supply a liquid to a tip of said discharge electrode; and a voltage applying means configured to apply a voltage between said tip of said discharge electrode and said opposed electrode to produce a mist of charged minute water particles from the liquid supplied to said tip of said discharge electrode, wherein said opposed electrode is provided with an aperture for discharging the mist of charged minute water particles outwardly therethrough, said opposed electrode being shaped to have a recessed surface which is opposed to said discharge electrode and surrounds said tip of said discharge electrode, and said opposed electrode being provided with a cylindrical electrode extending from a periphery of said aperture away from said discharge electrode, characterized in that, when viewed in a cross section of said opposed electrode, said opposed electrode is formed such that at least one part of an outline of said recessed surface extends along an arc centered on said tip of said discharge electrode with its radius equal to a shortest distance between said tip and said recessed surface. a discharge electrode; an opposed electrode spaced from said discharge electrode; a liquid supplying means configured to supply a liquid to a tip of said discharge electrode; and a voltage applying means configured to apply a voltage between said tip of said discharge electrode and said opposed electrode to produce a mist of charged minute water particles from the liquid supplied to said tip of said discharge electrode, wherein said opposed electrode is provided with an aperture for discharging the mist of charged minute water particles outwardly therethrough, said opposed electrode being shaped to have a recessed surface which is opposed to said discharge electrode and surrounds said tip of said discharge electrode, and said opposed electrode being provided with a cylindrical electrode extending from a periphery of said aperture away from said discharge electrode,
A hygienic coupling system comprising a conduit clamping and sealing system and a hygienic sleeve system, wherein the conduit clamping and sealing system comprises: a bearing element comprising a back segment with an external back thread for attachment to a device or fastening to a box or enclosure; a middle segment configured to receive a conduit and to guide and / or align the hygienic sleeve system; and a front segment configured to receive a seal and a front nut to seal a connection between the conduit and the bearing element and to fasten the hygienic sleeve system; and the hygienic sleeve system comprises: a back gasket; a front gasket; and a hygienic cap configured to cover a surface of the bearing element, characterised in that the back gasket, the hygienic cap, and the front gasket form a sleeve unit with seamless transitions and with pre-defined gasket compression. the conduit clamping and sealing system comprises: a bearing element comprising a back segment with an external back thread for attachment to a device or fastening to a box or enclosure; a middle segment configured to receive a conduit and to guide and / or align the hygienic sleeve system; and a front segment configured to receive a seal and a front nut to seal a connection between the conduit and the bearing element and to fasten the hygienic sleeve system; a bearing element comprising a back segment with an external back thread for attachment to a device or fastening to a box or enclosure; a middle segment configured to receive a conduit and to guide and / or align the hygienic sleeve system; and a front segment configured to receive a seal and a front nut to seal a connection between the conduit and the bearing element and to fasten the hygienic sleeve system; and the hygienic sleeve system comprises: a back gasket; a front gasket; and a hygienic cap configured to cover a surface of the bearing element, characterised in that the back gasket, the hygienic cap, and the front gasket form a sleeve unit with seamless transitions and with pre-defined gasket compression. a back gasket; a front gasket; and a hygienic cap configured to cover a surface of the bearing element, characterised in that the back gasket, the hygienic cap, and the front gasket form a sleeve unit with seamless transitions and with pre-defined gasket compression.
Motor vehicle door latch, with at least one closing/actuator element, and with an associated buffer unit (4, 5, 6) consisting mostly of a plastic foam to dampen the movement/noise of the closing/actuator element, whereby the buffer unit (4, 5, 6) is made up of at least two parts with a piston acted upon by the closing/actuator element and a foam body (5, 6) that interacts with the piston, characterized in that the foam body (5, 6) and at least one gasket are made of the same material.
A gland assembly including: a gland member; a second gland member; and a holding device received within the gland member, the gland assembly configured to apply a gripping force to an elongate member extending through the gland assembly in response to a torque applied to the gland member, the gland member and the second gland member being engageable by means of mating screw threads, the gland member and second gland member comprising a through bore in which an elongate member is received, the through bore having an inner surface, the inner surface including an urging surface configured to urge the holding device towards the elongate member as the screw threads are engaged and tightened in response to rotation of the gland member relative to the second gland member such that a gripping force is applied to the elongate member, wherein the holding device includes gripping means and a support member, the gripping means comprising a hub and one or more fingers extending from the hub, one or more of said one or more fingers having ridges on an inner surface, arranged to contact the elongate member in use, wherein the ridges are angled in the opposite direction to a linear force pulling the elongate member out of the gland member such that they engage the surface of the elongate member in response to the linear force, and oppose the linear force, increasing the gripping force on the elongate member in response to the linear force, and wherein the hub is rotatable relative to the support member and the gland member is rotatable relative to the gripping means. a gland member; a second gland member; and a holding device received within the gland member, the gland assembly configured to apply a gripping force to an elongate member extending through the gland assembly in response to a torque applied to the gland member, the gland member and the second gland member being engageable by means of mating screw threads, the gland member and second gland member comprising a through bore in which an elongate member is received, the through bore having an inner surface, the inner surface including an urging surface configured to urge the holding device towards the elongate member as the screw threads are engaged and tightened in response to rotation of the gland member relative to the second gland member such that a gripping force is applied to the elongate member, wherein the holding device includes gripping means and a support member, the gripping means comprising a hub and one or more fingers extending from the hub, one or more of said one or more fingers having ridges on an inner surface, arranged to contact the elongate member in use, wherein the ridges are angled in the opposite direction to a linear force pulling the elongate member out of the gland member such that they engage the surface of the elongate member in response to the linear force, and oppose the linear force, increasing the gripping force on the elongate member in response to the linear force, and wherein the hub is rotatable relative to the support member and the gland member is rotatable relative to the gripping means.
A control device for an internal combustion engine, the internal combustion engine including an intake valve, a cam, a cam position sensor, a crank position sensor and an intake-side variable valve timing mechanism,the intake-side variable valve timing mechanism configured to: (i) be driven by an electric motor; (ii) operate within a predetermined phase angle range, (iii) continuously advance and retard a phase of the cam that actuates the intake valve; and the control device characterized by comprising an electronic control unit configured to: (iv) when the electronic control unit determines that there is a failure in the crank position sensor, actuate the intake-side variable valve timing mechanism toward a retardation side, position the intake-side variable valve timing mechanism at a prescribed position, being a most retarded position in the predetermined phase angle range; (v) stop energization of the electric motor when an engine rotation speed is higher than or equal to a predetermined value after the intake-side variable valve timing mechanism is positioned at the most retarded position; (vi) continue energization of the electric motor when the engine rotation speed is lower than the predetermined value after the intake-side variable valve timing mechanism is positioned at the most retarded position, and (vii) execute fail-safe control based on a signal from the cam position sensor instead of a signal from the crank position sensor. (i) be driven by an electric motor; (ii) operate within a predetermined phase angle range, (iii) continuously advance and retard a phase of the cam that actuates the intake valve; and (iv) when the electronic control unit determines that there is a failure in the crank position sensor, actuate the intake-side variable valve timing mechanism toward a retardation side, position the intake-side variable valve timing mechanism at a prescribed position, being a most retarded position in the predetermined phase angle range; (v) stop energization of the electric motor when an engine rotation speed is higher than or equal to a predetermined value after the intake-side variable valve timing mechanism is positioned at the most retarded position; (vi) continue energization of the electric motor when the engine rotation speed is lower than the predetermined value after the intake-side variable valve timing mechanism is positioned at the most retarded position, and (vii) execute fail-safe control based on a signal from the cam position sensor instead of a signal from the crank position sensor.
A process for making a trench wall in the ground, characterized in that it comprises the following steps: - excavating a pre-trench with a shallower depth along the outline of the wall to be produced, then pouring a binder in said pre-trench, the binder being lime or cement; - then, using a trencher, excavating a trench corresponding to the wall to be produced while mixing the material of the ground with the binder initially contained in the pre-trench, in the entire volume of the trench, whereby the trench wall is obtained. - excavating a pre-trench with a shallower depth along the outline of the wall to be produced, then pouring a binder in said pre-trench, the binder being lime or cement; - then, using a trencher, excavating a trench corresponding to the wall to be produced while mixing the material of the ground with the binder initially contained in the pre-trench, in the entire volume of the trench, whereby the trench wall is obtained.
An intrinsically safe circuit configured for supplying power to a load connected to a first output terminal and to a second output terminal, said circuit comprising: a power supply source; a voltage limiter connected in parallel with said power supply source to limit the magnitude of the voltage generated by said power supply source; a connection between a first side of said voltage limiter and said first output terminal; characterized in that said circuit comprises: a current limiter connected between a second side of said voltage limiter and said second output terminal, said current limiter comprises: a barrier resistor; a variable impedance; a second side of said voltage limiter is connected in series with said barrier resistor and said variable impedance to said second output terminal; a reference voltage; said current limiter limits a current delivered to said load via said terminals to a maximum current level in response to a comparison of said reference voltage with a voltage across said barrier resistor. a power supply source; a voltage limiter connected in parallel with said power supply source to limit the magnitude of the voltage generated by said power supply source; a connection between a first side of said voltage limiter and said first output terminal; characterized in that said circuit comprises: a current limiter connected between a second side of said voltage limiter and said second output terminal, said current limiter comprises: a barrier resistor; a variable impedance; a second side of said voltage limiter is connected in series with said barrier resistor and said variable impedance to said second output terminal; a reference voltage; said current limiter limits a current delivered to said load via said terminals to a maximum current level in response to a comparison of said reference voltage with a voltage across said barrier resistor. a barrier resistor; a variable impedance; a second side of said voltage limiter is connected in series with said barrier resistor and said variable impedance to said second output terminal; a reference voltage; said current limiter limits a current delivered to said load via said terminals to a maximum current level in response to a comparison of said reference voltage with a voltage across said barrier resistor.
An oil separator of a centrifugal-separation type comprising: a cylindrical separator body; and an inflow pipe that introduces a fluid including an oil into the separator body and that includes a curved portion, wherein a peripheral wall of the separator body and the inflow pipe include a common portion common to each other, characterized in that the curved portion includes an oil draining hole. a cylindrical separator body; and an inflow pipe that introduces a fluid including an oil into the separator body and that includes a curved portion, wherein a peripheral wall of the separator body and the inflow pipe include a common portion common to each other, characterized in that the curved portion includes an oil draining hole.
A color-strikable glass container having a container glass composition including: a base glass portion comprising: 60-75 wt. % SiO 2, 7-15 wt. % Na 2 O, 6-12 wt. % CaO, 0.1-3.0 wt. % Al 2 O 3, 0.0-2.0 wt. % MgO, 0.0-2.0 wt. % K 2 O, and 0.01-0.30 wt. % SO 3; and a latent colorant portion comprising: 0.0875-0.35 wt. % cuprous oxide (Cu 2 O), 0.06-0.5 wt. % stannous oxide (SnO), and 0.0125-0.05 wt. % bismuth oxide (Bi 2 O 3). a base glass portion comprising: 60-75 wt. % SiO 2, 7-15 wt. % Na 2 O, 6-12 wt. % CaO, 0.1-3.0 wt. % Al 2 O 3, 0.0-2.0 wt. % MgO, 0.0-2.0 wt. % K 2 O, and 0.01-0.30 wt. % SO 3; and a latent colorant portion comprising: 0.0875-0.35 wt. % cuprous oxide (Cu 2 O), 0.06-0.5 wt. % stannous oxide (SnO), and 0.0125-0.05 wt. % bismuth oxide (Bi 2 O 3).
A method of routing a telephone communication, the method comprising the steps of: detecting an incoming telephone call to a primary telephone number; retrieving a call pattern of a user associated with the primary telephone number; retrieving location or presence information associated with the user associated with the primary telephone number; determining, using the location or presence information, if the retrieved call pattern requires modification for routing the telephone call; and if so, modifying the call pattern, using the location or presence information to create a route pattern for the current incoming call, including an ordering of telephony devices associated with the user that can be called sequentially or simultaneously; and selecting, based on the route pattern, which of a plurality of telephony devices (70, 280a) associated with the user determined to be proximate the user to route the incoming telephone call to. detecting an incoming telephone call to a primary telephone number; retrieving a call pattern of a user associated with the primary telephone number; retrieving location or presence information associated with the user associated with the primary telephone number; determining, using the location or presence information, if the retrieved call pattern requires modification for routing the telephone call; and if so, modifying the call pattern, using the location or presence information to create a route pattern for the current incoming call, including an ordering of telephony devices associated with the user that can be called sequentially or simultaneously; and selecting, based on the route pattern, which of a plurality of telephony devices (70, 280a) associated with the user determined to be proximate the user to route the incoming telephone call to.
A user equipment operating a transmission protocol for uplink data packet transmission in a communication system, wherein the user equipment comprises: a receiver operative to receive a Fast Retransmission Indicator, referred to as FRI, wherein the FRI indicates whether or not a base station requests a retransmission of a previously transmitted data packet; and a transmitter operative to retransmit the data packet using the same redundancy version as already used for the previous transmission of the data packet, wherein the FRI indicates that the retransmission is to be performed with additional transmission parameters identical to same used for the previous transmission of the data packet; and wherein the transmitter is further operative to use additional transmission parameters identical to same used for the previous transmission of the data packet for retransmitting the data packet, and wherein the additional identical transmission parameter to be used for retransmitting the data packet is at least the scrambling code of the previously transmitted data packet, and wherein a retransmission of a data packet can also be triggered by a Downlink Control Information, referred to as DCI, and/or a HARQ Indicator, referred to as HI; wherein a first time period between the previous transmission of the data packet and the reception of the FRI, and/or a second time period between the reception of the FRI and the retransmission of the data packet is smaller than a third time period between reception of a DCI or HI and its corresponding retransmission of the data packet. a receiver operative to receive a Fast Retransmission Indicator, referred to as FRI, wherein the FRI indicates whether or not a base station requests a retransmission of a previously transmitted data packet; and a transmitter operative to retransmit the data packet using the same redundancy version as already used for the previous transmission of the data packet, wherein the FRI indicates that the retransmission is to be performed with additional transmission parameters identical to same used for the previous transmission of the data packet; and wherein the transmitter is further operative to use additional transmission parameters identical to same used for the previous transmission of the data packet for retransmitting the data packet, and wherein the additional identical transmission parameter to be used for retransmitting the data packet is at least the scrambling code of the previously transmitted data packet, and wherein a retransmission of a data packet can also be triggered by a Downlink Control Information, referred to as DCI, and/or a HARQ Indicator, referred to as HI; wherein a first time period between the previous transmission of the data packet and the reception of the FRI, and/or a second time period between the reception of the FRI and the retransmission of the data packet is smaller than a third time period between reception of a DCI or HI and its corresponding retransmission of the data packet.