mhurhangee/ep-ind-claims huggingface dataset:
A method of creating a cooling arrangement for a turbine component having a surface, wherein the turbine component includes an interior cooling passage formed therein, the method comprising steps of: forming a slot through a side wall having an exterior surface and an inner surface of the turbine component; forming an insert having an impingement surface comprising one or more cooling features, the impingement surface defining within the insert a pre-impingement cavity; and being characterised by the following steps: positioning the insert within the slot, such that the impingement surface defines with the inner surface of the side wall a post-impingement cavity that is radially offset from the pre-impingement cavity and in fluid communication with the pre-impingement cavity via the one or more cooling features; securing the insert within the slot; and forming at least one passage in the side wall of the turbine component, and in fluid communication with the internal cooling passage, the pre-impingement cavity, the post-impingement cavity, and the exterior surface of the side wall of the turbine component. forming a slot through a side wall having an exterior surface and an inner surface of the turbine component; forming an insert having an impingement surface comprising one or more cooling features, the impingement surface defining within the insert a pre-impingement cavity; and being characterised by the following steps: positioning the insert within the slot, such that the impingement surface defines with the inner surface of the side wall a post-impingement cavity that is radially offset from the pre-impingement cavity and in fluid communication with the pre-impingement cavity via the one or more cooling features; securing the insert within the slot; and forming at least one passage in the side wall of the turbine component, and in fluid communication with the internal cooling passage, the pre-impingement cavity, the post-impingement cavity, and the exterior surface of the side wall of the turbine component. positioning the insert within the slot, such that the impingement surface defines with the inner surface of the side wall a post-impingement cavity that is radially offset from the pre-impingement cavity and in fluid communication with the pre-impingement cavity via the one or more cooling features; securing the insert within the slot; and forming at least one passage in the side wall of the turbine component, and in fluid communication with the internal cooling passage, the pre-impingement cavity, the post-impingement cavity, and the exterior surface of the side wall of the turbine component.
1. An extracorporeal guiding device for an intracorporeal magnetic object comprising a motor-driven positioning device having a maximum of three degrees of freedom to be activated for translational motion of a distal connecting interface of the positioning device in an extracorporeal space coordinate system to which an end effector of the extracorporeal guiding device is connected or connectable, the end effector having a maximum of two degrees of freedom to be activated, i.e. for rotational motion of a magnetic field generator, preferably a permanent magnet of the end effector, characterized in that the positioning device includes a number of motor-driven extensions or arms (108, 110), wherein selected extensions or arms thereof are weight-balanced with respect to corresponding motor drives (114, 122), and the respective motor drive for selected degrees of freedom either is or becomes limited as to the driving force in such manner that the driving force adapted to be maximally output is either equal to or greater than an operating load force to be expected, but equal to or smaller than a predetermined maximum force in the case of which an injury of a patient or an operator in the event of collision is largely excluded.
A defect inspection device, comprising: a flying body capable of freely moving in the space; an inspection means for inspecting a wall of an inspection target area of an inspection structure provided on the flying body; an arm means to which the inspection means is attached at one end; and a first directing means having a rotation shaft for controlling a direction of the inspection means by rotating the arm means; an imaging means which is provided on the flying body and captures images of the inspection target area of the inspection structure; and a second directing means for controlling a direction of capturing images performed by the imaging means, by rotating the imaging means, wherein the first directing means is mounted on the flying body so as to be biased away in any direction from a horizontal center or center of gravity of the flying body, wherein the second directing means is mounted on the flying body so as to be biased away in the direction opposite to the direction in which the first directing means is mounted, wherein a first balance adjustment means is provided for adjusting a mass balance so that the flying body is balanced at the center position or the center of gravity position, wherein the rotation shaft is arranged at the position of a center of gravity of an object, wherein said object comprises the inspection means, the arm means, and a second balance adjustment means. a flying body capable of freely moving in the space; an inspection means for inspecting a wall of an inspection target area of an inspection structure provided on the flying body; an arm means to which the inspection means is attached at one end; and a first directing means having a rotation shaft for controlling a direction of the inspection means by rotating the arm means; an imaging means which is provided on the flying body and captures images of the inspection target area of the inspection structure; and a second directing means for controlling a direction of capturing images performed by the imaging means, by rotating the imaging means, wherein the first directing means is mounted on the flying body so as to be biased away in any direction from a horizontal center or center of gravity of the flying body, wherein the second directing means is mounted on the flying body so as to be biased away in the direction opposite to the direction in which the first directing means is mounted, wherein a first balance adjustment means is provided for adjusting a mass balance so that the flying body is balanced at the center position or the center of gravity position, wherein the rotation shaft is arranged at the position of a center of gravity of an object, wherein said object comprises the inspection means, the arm means, and a second balance adjustment means.
A distributed optical fibre sensing system comprising: a sensor fibre comprising first and second waveguides (30, 32) extending together along the fibre; and an interrogation system coupled to the sensor fibre and arranged to measure one or more physical parameters as a function of position along the sensor fibre by carrying out at least first and second sensing operations to detect properties of probe light backscattered within the first and second waveguides respectively, characterised in that: the first waveguide is a single mode waveguide and the second waveguide is a multi mode waveguide; and the first and second waveguides are waveguides of a double clad optical fibre in which the first waveguide is a single mode core of the double clad optical fibre. a sensor fibre comprising first and second waveguides (30, 32) extending together along the fibre; and an interrogation system coupled to the sensor fibre and arranged to measure one or more physical parameters as a function of position along the sensor fibre by carrying out at least first and second sensing operations to detect properties of probe light backscattered within the first and second waveguides respectively, characterised in that: the first waveguide is a single mode waveguide and the second waveguide is a multi mode waveguide; and the first and second waveguides are waveguides of a double clad optical fibre in which the first waveguide is a single mode core of the double clad optical fibre. the first waveguide is a single mode waveguide and the second waveguide is a multi mode waveguide; and the first and second waveguides are waveguides of a double clad optical fibre in which the first waveguide is a single mode core of the double clad optical fibre.
A user equipment, UE, comprising: a receiving unit configured to receive indication information indicating whether a non-anchor physical resource block, PRB, is in an in-band frequency band of LTE or in a guard band frequency band of LTE, and to receive, in a case that the non-anchor PRB is in the in-band frequency band, and an anchor PRB is in the guard band frequency band, an RRC signaling including a non-anchor PRB configuration, the non-anchor PRB configuration indicating a location of the non-anchor PRB, the non-anchor PRB configuration being an offset of the non-anchor PRB from a PRB in the middle of an LTE bandwidth; and a determining unit configured to determine, based on the non-anchor PRB configuration, the location of the non-anchor PRB in a set of LTE in-band PRBs, wherein the non-anchor PRB is different from the anchor PRB in that: the non-anchor PRB is a PRB used by the UE for receiving a unicast transmission related to NarrowBand IOT, NB-IoT, but not used by the UE for receiving a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a master system information block, MIB, and a system information block, SIB, each of which is related to the NB-IoT; and the anchor PRB is a PRB used by the UE for receiving the PSS, the SSS, the MIB, and/or the SIB. a receiving unit configured to receive indication information indicating whether a non-anchor physical resource block, PRB, is in an in-band frequency band of LTE or in a guard band frequency band of LTE, and to receive, in a case that the non-anchor PRB is in the in-band frequency band, and an anchor PRB is in the guard band frequency band, an RRC signaling including a non-anchor PRB configuration, the non-anchor PRB configuration indicating a location of the non-anchor PRB, the non-anchor PRB configuration being an offset of the non-anchor PRB from a PRB in the middle of an LTE bandwidth; and a determining unit configured to determine, based on the non-anchor PRB configuration, the location of the non-anchor PRB in a set of LTE in-band PRBs, wherein the non-anchor PRB is different from the anchor PRB in that: the non-anchor PRB is a PRB used by the UE for receiving a unicast transmission related to NarrowBand IOT, NB-IoT, but not used by the UE for receiving a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a master system information block, MIB, and a system information block, SIB, each of which is related to the NB-IoT; and the anchor PRB is a PRB used by the UE for receiving the PSS, the SSS, the MIB, and/or the SIB. the non-anchor PRB is a PRB used by the UE for receiving a unicast transmission related to NarrowBand IOT, NB-IoT, but not used by the UE for receiving a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a master system information block, MIB, and a system information block, SIB, each of which is related to the NB-IoT; and the anchor PRB is a PRB used by the UE for receiving the PSS, the SSS, the MIB, and/or the SIB.
A filter assembly for filtering liquids comprising: a) a filter housing; b) a liquid inlet to the filter housing; c) a separation plate sealably secured to the inner circumference of the filter housing, said separation plate provided with openings; d) a plurality of rectangular shaped filters enclosed in said filter housing, wherein each of said rectangular shaped filters having a first central void surrounded by pleated filter media with the external surface of the pleated filter media exposed to the liquid to be filtered entering the filter vessel through the liquid inlet, a solid top cap, a bottom cap with an opening located therein to communicate fluidly with the first central void in the filter media that extends from the top cap to the bottom cap; e) the bottom cap of each rectangular shaped filter is removably mounted on a filter receiver surrounding each of the openings in the separation plate, wherein each bottom cap has a sealing member that seals the bottom cap with the filter receiver to avoid liquid bypass; f) a collecting chamber is provided in the filter housing below the separation plate to collect the filtered clean liquid; and g) a clean liquid outlet from the filter housing beneath the separation plate; characterized in that the filter assembly further comprises a perforated support inside of the first central void of each said rectangular shaped filter, wherein the perforated support is mounted on each said filter receiver, and wherein each said perforated support has a second central void such that the liquid to be filtered passes from the external surface of the filter media into the first central void of the rectangular shaped filters, and such that the resulting filtered liquid flows from the first central void into the second central void of the perforated support and then via opening of the separation plate into the collecting chamber. a) a filter housing; b) a liquid inlet to the filter housing; c) a separation plate sealably secured to the inner circumference of the filter housing, said separation plate provided with openings; d) a plurality of rectangular shaped filters enclosed in said filter housing, wherein each of said rectangular shaped filters having a first central void surrounded by pleated filter media with the external surface of the pleated filter media exposed to the liquid to be filtered entering the filter vessel through the liquid inlet, a solid top cap, a bottom cap with an opening located therein to communicate fluidly with the first central void in the filter media that extends from the top cap to the bottom cap; e) the bottom cap of each rectangular shaped filter is removably mounted on a filter receiver surrounding each of the openings in the separation plate, wherein each bottom cap has a sealing member that seals the bottom cap with the filter receiver to avoid liquid bypass; f) a collecting chamber is provided in the filter housing below the separation plate to collect the filtered clean liquid; and g) a clean liquid outlet from the filter housing beneath the separation plate;
An antenna comprising: a pair of electrically conducting first lands (5, 7) disposed in a first plane, the pair of first lands being arranged to either side of, and spaced-apart from, an imaginary line on the first plane; antenna feed means for the pair of first electrically conducting lands (5, 7); a pair of spaced-apart electrically conducting second lands (1, 3) or a single second land, disposed in said first plane, said pair of second lands (1, 3) or said single second land being spaced-apart from the pair of first lands (5, 7) along said imaginary line, being electrically-insulated from the pair of first lands (5, 7), and the pair of second lands (1, 3) being arranged to either side of or the single second land extending across said imaginary line; and a third conducting land oriented in a second plane substantially parallel to the first plane, characterised in that the antenna further comprises a fourth conducting land in a third plane substantially parallel to both the first plane and the second plane, offset from both first plane and the second plane with the first plane located between the third and second planes, wherein the first plane is spaced apart from the second plane by a value in the range of between 9 λ/100 and 13 λ/100 for an antenna operating frequency of between 700 MHz to 1100 MHz or in the range of 14 λ/100 to 18 λ/100 for an antenna operating frequency of between 470 MHz and 800 MHz, wherein λ is the wavelength of operation of the antenna. a pair of electrically conducting first lands (5, 7) disposed in a first plane, the pair of first lands being arranged to either side of, and spaced-apart from, an imaginary line on the first plane; antenna feed means for the pair of first electrically conducting lands (5, 7); a pair of spaced-apart electrically conducting second lands (1, 3) or a single second land, disposed in said first plane, said pair of second lands (1, 3) or said single second land being spaced-apart from the pair of first lands (5, 7) along said imaginary line, being electrically-insulated from the pair of first lands (5, 7), and the pair of second lands (1, 3) being arranged to either side of or the single second land extending across said imaginary line; and a third conducting land oriented in a second plane substantially parallel to the first plane, characterised in that the antenna further comprises a fourth conducting land in a third plane substantially parallel to both the first plane and the second plane, offset from both first plane and the second plane with the first plane located between the third and second planes, wherein the first plane is spaced apart from the second plane by a value in the range of between 9 λ/100 and 13 λ/100 for an antenna operating frequency of between 700 MHz to 1100 MHz or in the range of 14 λ/100 to 18 λ/100 for an antenna operating frequency of between 470 MHz and 800 MHz, wherein λ is the wavelength of operation of the antenna.
An article of footwear comprising: an upper; a plurality of sensors (67, 68, 69, 70) positioned within the article of footwear and configured to measure force exerted in a footbed region of the article of footwear; a processor communicatively coupled to the sensors (67, 68, 69, 70), wherein the processor is configured to receive input indicative of forces measured by the sensors and to transmit data based on the input indicative of forces measured by the sensors; and a sole structure including a plurality of support elements located in a plantar region, wherein each of the support elements is non-destructively removable from and replaceable into the sole structure, and wherein each of the support elements is independently and non-destructively removable from and replaceable into the sole structure from an exterior underside of the article. an upper; a plurality of sensors (67, 68, 69, 70) positioned within the article of footwear and configured to measure force exerted in a footbed region of the article of footwear; a processor communicatively coupled to the sensors (67, 68, 69, 70), wherein the processor is configured to receive input indicative of forces measured by the sensors and to transmit data based on the input indicative of forces measured by the sensors; and a sole structure including a plurality of support elements located in a plantar region, wherein each of the support elements is non-destructively removable from and replaceable into the sole structure, and wherein each of the support elements is independently and non-destructively removable from and replaceable into the sole structure from an exterior underside of the article.
Lift and pivot device for a cover of a furnace, in particular an electric arc furnace, comprising - a guide housing having a base plate, at least one rotatably mounted slide roller (6, 6') and a vertical opening, - a lift pin which can be lifted and lowered inside the vertical opening in the guide housing, - a lift cylinder for lifting and lowering the lift pin, which lift cylinder is connected at one end in articulated fashion to the lift pin and at the other end in articulated fashion and rotatably to the base plate, and - a guide frame for carrying the cover, which guide frame comprises a support arm, wherein an upper end of the support arm is equipped for connection to the cover and furthermore comprising a lift nose having a lift eye which can be engaged with an end of the lift pin facing away from the lift cylinder, wherein the support arm has at its other end at least one slide plate (2b, 2b'), wherein a lateral face of the at least one slide roller (6, 6') can roll on the at least one slide plate (2b, 2b') during the lifting and lowering of the lift cylinder. - a guide housing having a base plate, at least one rotatably mounted slide roller (6, 6') and a vertical opening, - a lift pin which can be lifted and lowered inside the vertical opening in the guide housing, - a lift cylinder for lifting and lowering the lift pin, which lift cylinder is connected at one end in articulated fashion to the lift pin and at the other end in articulated fashion and rotatably to the base plate, and - a guide frame for carrying the cover, which guide frame comprises a support arm, wherein an upper end of the support arm is equipped for connection to the cover and furthermore comprising a lift nose having a lift eye which can be engaged with an end of the lift pin facing away from the lift cylinder, wherein the support arm has at its other end at least one slide plate (2b, 2b'), wherein a lateral face of the at least one slide roller (6, 6') can roll on the at least one slide plate (2b, 2b') during the lifting and lowering of the lift cylinder.
A random copolymer comprising at least one unit of copolymers represented by the following Copolymers 1 to 6: wherein: l is a real number, which is 0 < l ≤ 1 as a mole fraction, m is a real number, which is 0 < m ≤ 1 as a mole fraction, l + m = 1, and n is an integer of 1 to 10,000. l is a real number, which is 0 < l ≤ 1 as a mole fraction, m is a real number, which is 0 < m ≤ 1 as a mole fraction, l + m = 1, and n is an integer of 1 to 10,000.
Automatic coffee machine comprising an infusion chamber intended to receive the grounds and equipped with an upper opening, a circuit for dispensing the coffee and a duct of introducing a cleaning tablet in the infusion chamber through the upper opening, said duct comprising a lower end for dispensing said tablet to make it possible to clean the infusion chamber and the coffee dispensing circuit, characterised in that the lower end of the duct is mobile between a waiting position, wherein it is remote from the upper opening and an introduction position, wherein it is adjacent or above the upper opening to make it possible to introduce the cleaning tablet in the infusion chamber.
A bipolar semiconductor device comprising at least five layers, provided for converting light into an electrical current, wherein a heterostructure is embedded into a pn-junction for that purpose, the layers being provided in such a way a) that the first layer consists of a p-doped semiconductor material having a band gap X, b) that the second and fourth layer consist of a material having a larger band gap Y and have a thickness allowing a tunneling of charge carriers, c) that the third layer consists of a material having a smaller band gap Z and of a material with a high light absorption and, d) that the fifth layer consists of a n-doped semiconductor material having a band gap X, so that, between the first layer and the fifth layer, a quantum structure is embedded made of two tunnel barriers, namely the second and the fourth layer, the third layer being arranged in the middle thereof, wherein a layer according to a) or d) is so thin that incident light reaches the remaining layers, characterized in that exactly three layers are embedded into the pn-junction so that a triple heterostructure is embedded and the third layer is so thin that mini bands form between the second and the fourth layer, namely quantized energy levels. a) that the first layer consists of a p-doped semiconductor material having a band gap X, b) that the second and fourth layer consist of a material having a larger band gap Y and have a thickness allowing a tunneling of charge carriers, c) that the third layer consists of a material having a smaller band gap Z and of a material with a high light absorption and, d) that the fifth layer consists of a n-doped semiconductor material having a band gap X,