mhurhangee/ep-ind-claims huggingface dataset:
A cutter head arrangement for fitting to a shaft boring machine for blind shaft boring and enlargement applications, the cutter head arrangement comprising: a cutter head portion including a cutter head side wall to define a chamber surrounded by the cutter head side wall, characterised in that a rim portion extends from the cutter head side wall, the rim portion defining a working, contact face of the cutter head portion, the rim portion defining at least one material handling aperture to accommodate a pilot shaft material handling arrangement, the at least one material handling aperture extending between the contact face of the cutter head portion and the chamber surrounded by the cutter head side wall; and a recessed wall portion extends away from the rim portion inwardly into the chamber so as to be surrounded by the cutter head side wall, with the rim portion and/or the recessed wall portion being fitted with a plurality of cutter elements (38, 40, 42) to enable the cutter head portion to bore a pilot hole in use; wherein the recessed wall portion is a substantially conical body so as to define a conical recess proximate a central region of the cutter head portion, at a distal end of the cutter head portion, with the conical body accordingly defining an inwardly extending apex that terminates substantially in line with a central axis of the cutter head portion. a cutter head portion including a cutter head side wall to define a chamber surrounded by the cutter head side wall, characterised in that a rim portion extends from the cutter head side wall, the rim portion defining a working, contact face of the cutter head portion, the rim portion defining at least one material handling aperture to accommodate a pilot shaft material handling arrangement, the at least one material handling aperture extending between the contact face of the cutter head portion and the chamber surrounded by the cutter head side wall; and a recessed wall portion extends away from the rim portion inwardly into the chamber so as to be surrounded by the cutter head side wall, with the rim portion and/or the recessed wall portion being fitted with a plurality of cutter elements (38, 40, 42) to enable the cutter head portion to bore a pilot hole in use; wherein the recessed wall portion is a substantially conical body so as to define a conical recess proximate a central region of the cutter head portion, at a distal end of the cutter head portion, with the conical body accordingly defining an inwardly extending apex that terminates substantially in line with a central axis of the cutter head portion.
A method of processing a modulated wireless communication signal prior to transmitting said signal, said method comprising: performing on said signal both an inverse Fourier transform operation to form a time domain representation of said signal and a Fourier transform operation to form a frequency domain representation of said signal, such that said signal is transformed to form a two dimensional multi carrier modulated signal; applying a frequency domain filter and a time domain filter to said signal following at least one of said Fourier transform operations; and transmitting said filtered two dimensional multi carrier modulated signal via a wireless channel towards a receiver; and transmitting a control signal indicative of a bandwidth and time window of said applied filters and indicative of said Fourier transform and inverse Fourier Transform operations applied to said modulated signal. performing on said signal both an inverse Fourier transform operation to form a time domain representation of said signal and a Fourier transform operation to form a frequency domain representation of said signal, such that said signal is transformed to form a two dimensional multi carrier modulated signal; applying a frequency domain filter and a time domain filter to said signal following at least one of said Fourier transform operations; and transmitting said filtered two dimensional multi carrier modulated signal via a wireless channel towards a receiver; and transmitting a control signal indicative of a bandwidth and time window of said applied filters and indicative of said Fourier transform and inverse Fourier Transform operations applied to said modulated signal.
A component assembly for a wind energy installation comprising an outer component (20, 310, 330, 360), an inner component (28, 320, 338, 350, 368, 380, 390) which is arranged within the outer component (20, 310, 330, 360) and a pair of rolling bearings (26, 26'; 322, 322'; 332, 332'; 352, 352'; 362, 362'; 382, 382'; 392, 392') which comprises a first rolling bearing (26, 26', 322, 322', 332, 332', 352, 352', 362, 362', 382, 382', 392, 392') and a second rolling bearing (26, 26', 322, 322', 332, 332', 352, 352, 362, 362', 382, 382', 392, 392'), which are arranged at an angle with respect to one another, and which pair of rolling bearings (26, 26'; 322, 322'; 332, 332'; 352, 352'; 362, 362'; 382, 382'; 392, 392') is preloaded by means of a biasing force, wherein the inner component (28, 320, 338, 350, 368, 380, 390) and the outer component (20, 310, 330, 360) are supported by means of the pair of rolling bearings (26, 26'; 322, 322'; 332, 332'; 352, 352'; 362, 362'; 382, 382'; 392, 392') in such a way that they are rotatable with respect to one another about an axis of rotation, wherein the component assembly further comprises a pressure sensor (27, 324, 334, 354, 364, 384, 394) which is arranged in a force flow of the biasing force for determining a preload of the pair of roller bearings (26, 26'; 322, 322'; 332, 332'; 352, 352'; 362, 362'; 382, 382'; 392, 392'), wherein the pressure sensor (27, 324, 334, 354, 364, 384, 394) is constructed as a thin-film sensor and comprises at least a first pressure sensor (27, 324, 334, 354, 364, 384, 394) which is arranged at the first rolling bearing (26, 26', 322, 322', 332, 332', 352, 352', 362, 362', 382, 382', 392, 392') and a second pressure sensor (27, 324, 334, 354, 364, 384, 394) which is arranged at the second rolling bearing (26, 26', 322, 322', 332, 332', 352, 352', 362, 362', 382, 382', 392, 392').
Knitted fabric (1a-1f) comprising at least one first layer into which a plurality of linear or flat, in particular strip-shaped, electroconductive structures (10a, 10b, 10c, 11a, 11b, 11c) made of an electroconductive yarn and linear or flat, in particular strip-shaped, non-electroconductive structures made of a non-electroconductive yarn are knitted in such way that the electroconductive structures (10a, 10b, 10c, 11a, 11b, 11c) are electrically insulated from one another, wherein each of the electroconductive structures (10a, 10b, 10c, 11a, 11b, 11c) is capable of being individually electrically contacted and connected to an evaluation circuit, characterised in that, in order to make electrical contact, the electroconductive structures (10a, 10b, 10c, 11a, 11b, 11c) are electrically connected in a punctiform manner with insulated microcables or insulated conductive yarns or wrapped yarns which are partially stripped at the contact point, wherein the insulated microcables or insulated conductive yarns or wrapped yarns are configured as filler threads (20a, 20b, 20c, 21a, 21b, 21c) which extend parallel to stitch wales of the knitted fabric (1a-1f).
A control method of an exhaust gas purification system comprising an exhaust gas purification device having an oxidation catalyst device carrying an oxidation catalyst on the upstream side or an exhaust gas purification device carrying an oxidation catalyst in an exhaust passage of an internal combustion engine and a controller for carrying out forced regeneration control for recovering purification capability of said exhaust gas purification device, in which at forced regeneration control, the controller executes multi-injection control in order to raise an exhaust temperature, characterized in that in case said forced regeneration control is carried out, a region for control is divided into a multi-injection control region (Rm), a transition region (Rt), and a normal injection control region (Rn), which does not require a temperature rise by the multi-injection control, corresponding to a rotation speed (Ne, Nem) and a load (Q, Qm) of the internal combustion engine, the multi-injection control region (Rm) is made to correspond to a low-/medium-load operation region of the internal combustion engine, the normal injection control region (Rn) is made to correspond to a high-load operation region of the internal combustion engine, at said forced regeneration control, if an operation state of the internal combustion engine is the low-/medium-load operation region, the multi-injection control is carried out in the multi-injection control region (Rm), at said forced regeneration control, if an operation state of the internal combustion engine is the high-load operation state, a normal injection control is carried out in the normal injection control region (Rn), at said forced regeneration control, if an operation state of the internal combustion engine is the transition region (Rt), the multi-injection control is carried out by using data (Pt) for fuel pressure control obtained by interpolation of data used for fuel pressure control (Pm) on the multi-injection control region (Rm) side and data (Pn) used for fuel pressure control of the normal injection control on the normal injection control region (Rn) side.
A method for a user handing over to a home NodeB, characterized by, comprising the following steps: A. when the user initiates a handover procedure from a source NodeB to a target home NodeB, a target home NodeB gateway receiving a relocation request message from a mobility management unit of a core network; B. the target home NodeB gateway generating a user context for the user according to the relocation request message, allocating a user context identifier for the user context, and sending the user context identifier and the relocation request message to the target home NodeB; and C. when receiving a relocation request acknowledgement message replied by the target home NodeB, the target home NodeB gateway sending the relocation request acknowledgement message to the mobility management unit of the core network. A. when the user initiates a handover procedure from a source NodeB to a target home NodeB, a target home NodeB gateway receiving a relocation request message from a mobility management unit of a core network; B. the target home NodeB gateway generating a user context for the user according to the relocation request message, allocating a user context identifier for the user context, and sending the user context identifier and the relocation request message to the target home NodeB; and C. when receiving a relocation request acknowledgement message replied by the target home NodeB, the target home NodeB gateway sending the relocation request acknowledgement message to the mobility management unit of the core network.
A mobile device, comprising: a display device; an application component that accesses an item from a location in a remote server system and displays the item on the display device; a metadata gathering system that receives a share user input indicating the item is to be shared with another mobile device and that obtains location metadata that identifies the location of the item in the remote server system; a permission setting component that generates a permission setting user input mechanism, on the display device, that is actuated to set a permission for the item, relative to a user of the other mobile device, the permission setting component sending the permission to a permission system in the remote server system; a near field communication system that sends the location of the item in the remote server system to the other mobile device over a near field communication link; and, an open section identifier that identifies a current location within the item that is currently displayed on the display device, the metadata gathering component obtaining navigation metadata indicative of the current location, wherein the near field communication system sends the navigation metadata to the other mobile device over the near field communication link. a display device; an application component that accesses an item from a location in a remote server system and displays the item on the display device; a metadata gathering system that receives a share user input indicating the item is to be shared with another mobile device and that obtains location metadata that identifies the location of the item in the remote server system; a permission setting component that generates a permission setting user input mechanism, on the display device, that is actuated to set a permission for the item, relative to a user of the other mobile device, the permission setting component sending the permission to a permission system in the remote server system; a near field communication system that sends the location of the item in the remote server system to the other mobile device over a near field communication link; and, an open section identifier that identifies a current location within the item that is currently displayed on the display device, the metadata gathering component obtaining navigation metadata indicative of the current location, wherein the near field communication system sends the navigation metadata to the other mobile device over the near field communication link.
A method performed by at least one processor, comprising: obtaining a block of video data; splitting the block into an L-shaped partition and a second partition, the second partition being a rectangular partition located in a left-top direction of the L-shaped partition; and performing directional intra prediction of the L-shaped partition by using a reference sample chain for the L-shaped partition, comprising a chain of top and left reconstructed samples neighboring the L-shaped partition, as reference samples, characterized in that the reference sample chain for the L-shaped partition comprises: two horizontal reference lines and two vertical reference lines, that are directly connected, from the reconstructed samples, one of the two horizontal reference lines and one of the two vertical reference lines are within the block and are both neighboring the L-shaped partition, and the other of the two horizontal reference lines and the other of the two vertical reference lines are located outside the block and are at least partly neighboring the L-shaped partition. obtaining a block of video data; splitting the block into an L-shaped partition and a second partition, the second partition being a rectangular partition located in a left-top direction of the L-shaped partition; and performing directional intra prediction of the L-shaped partition by using a reference sample chain for the L-shaped partition, comprising a chain of top and left reconstructed samples neighboring the L-shaped partition, as reference samples, characterized in that the reference sample chain for the L-shaped partition comprises: two horizontal reference lines and two vertical reference lines, that are directly connected, from the reconstructed samples, one of the two horizontal reference lines and one of the two vertical reference lines are within the block and are both neighboring the L-shaped partition, and the other of the two horizontal reference lines and the other of the two vertical reference lines are located outside the block and are at least partly neighboring the L-shaped partition.
A reflective photomask blank comprising a substrate a multilayer reflection film that is formed on the substrate and reflects exposure light being light in extreme ultraviolet range, a protection film that is formed on the multilayer reflection film to protect the multilayer reflection film, a light-absorbing film that is formed on the protection film and absorbs the exposure light, and a hard mask film that is formed on and in contact with the light-absorbing film and functions as a hard mask in pattering the light-absorbing film by dry etching, wherein the hard mask film is constituted by a multilayer comprising a first layer and a second layer, the first layer is disposed at the side remotest from the substrate, the first layer is composed of a material that is resistant to chlorine-based dry etching, and removable by fluorine-based dry etching, the second layer is composed of a material that is resistant to fluorine-based dry etching, and removable by chlorine-based dry etching, and an etching clear time of the light-absorbing film on fluorine-based dry etching under one condition is longer than an etching clear time of the first layer of the hard mask film on the fluorine-based dry etching under the same condition. a substrate a multilayer reflection film that is formed on the substrate and reflects exposure light being light in extreme ultraviolet range, a protection film that is formed on the multilayer reflection film to protect the multilayer reflection film, a light-absorbing film that is formed on the protection film and absorbs the exposure light, and a hard mask film that is formed on and in contact with the light-absorbing film and functions as a hard mask in pattering the light-absorbing film by dry etching, wherein the hard mask film is constituted by a multilayer comprising a first layer and a second layer, the first layer is disposed at the side remotest from the substrate, the first layer is composed of a material that is resistant to chlorine-based dry etching, and removable by fluorine-based dry etching, the second layer is composed of a material that is resistant to fluorine-based dry etching, and removable by chlorine-based dry etching, and an etching clear time of the light-absorbing film on fluorine-based dry etching under one condition is longer than an etching clear time of the first layer of the hard mask film on the fluorine-based dry etching under the same condition. the hard mask film is constituted by a multilayer comprising a first layer and a second layer, the first layer is disposed at the side remotest from the substrate, the first layer is composed of a material that is resistant to chlorine-based dry etching, and removable by fluorine-based dry etching, the second layer is composed of a material that is resistant to fluorine-based dry etching, and removable by chlorine-based dry etching, and an etching clear time of the light-absorbing film on fluorine-based dry etching under one condition is longer than an etching clear time of the first layer of the hard mask film on the fluorine-based dry etching under the same condition.
A method for the preparation of polymer particles, the method comprising: - the provision of one or more polymer which is a polymer that displays a lower critical solution temperature, in aqueous media, that is between 10 to 90°C, the polymer being the polymerisation product of one or more monomer selected from polymerisable alkyleneglycol acrylate monomers and polymerisable alkyleneglycol methacrylate monomers; and - the addition of the polymer, as surface-engineering surfactant, to a reaction mixture for the preparation of a polymer particle by a method selected from emulsion methods, diffusion methods and evaporation methods. - the provision of one or more polymer which is a polymer that displays a lower critical solution temperature, in aqueous media, that is between 10 to 90°C, the polymer being the polymerisation product of one or more monomer selected from polymerisable alkyleneglycol acrylate monomers and polymerisable alkyleneglycol methacrylate monomers; and - the addition of the polymer, as surface-engineering surfactant, to a reaction mixture for the preparation of a polymer particle by a method selected from emulsion methods, diffusion methods and evaporation methods.
Household appliance for drying laundry, which has a heat sink around which process air can flow, wherein the heat sink has a substrate made of metal, which has a surface facing the process air, characterised in that the surface bears a coating preventing an adhesion of foreign particles, wherein the coating has a surface energy of at most 40 mN/m, that the surface has a part to which process air can flow directly, which part is completely covered by the coating and wherein the coated surface of the heat sink is formed from at least one material selected from the group comprising copper, aluminium, ferrous material and copper solder and silver solder, and that the heat sink has edges in the substrate, each edge of which is completely covered by the coating.
An electronic device comprising: a display; a storage module; and a processor configured: when determining that a head-mounted device, which is operatively and physically connected to the electronic device, is worn by a user, to display a first screen for providing a virtual reality on the display; to determine that the head-mounted device is removed from the user of a first eye direction, store information about a second screen being displayed on the display at a time point of removing the electronic device from the user of the first eye direction in the storage module; and when determining that the head-mounted device is worn by a user of a second eye direction, display the second screen on the display based on the stored information. a display; a storage module; and a processor configured: when determining that a head-mounted device, which is operatively and physically connected to the electronic device, is worn by a user, to display a first screen for providing a virtual reality on the display; to determine that the head-mounted device is removed from the user of a first eye direction, store information about a second screen being displayed on the display at a time point of removing the electronic device from the user of the first eye direction in the storage module; and when determining that the head-mounted device is worn by a user of a second eye direction, display the second screen on the display based on the stored information. when determining that a head-mounted device, which is operatively and physically connected to the electronic device, is worn by a user, to display a first screen for providing a virtual reality on the display; to determine that the head-mounted device is removed from the user of a first eye direction, store information about a second screen being displayed on the display at a time point of removing the electronic device from the user of the first eye direction in the storage module; and when determining that the head-mounted device is worn by a user of a second eye direction, display the second screen on the display based on the stored information.