mhurhangee/ep-ind-claims huggingface dataset:
A communication control device comprising: a control unit configured to regard each of a plurality of communication regions corresponding to individual beams formed by a directional antenna capable of forming the beams in 3-dimensional directions as a virtual cell and perform communication control when the plurality of beams are formed in the different 3-dimensional directions by the directional antenna, wherein the control unit performs the communication control in a manner that a control signal including a physical downlink control channel (PDCCH) and a physical downlink shared channel (PDSCH) is generated for each individual communication region of the plurality of communication regions and the control signal is transmitted to the corresponding individual communication region. a control unit configured to regard each of a plurality of communication regions corresponding to individual beams formed by a directional antenna capable of forming the beams in 3-dimensional directions as a virtual cell and perform communication control when the plurality of beams are formed in the different 3-dimensional directions by the directional antenna, wherein the control unit performs the communication control in a manner that a control signal including a physical downlink control channel (PDCCH) and a physical downlink shared channel (PDSCH) is generated for each individual communication region of the plurality of communication regions and the control signal is transmitted to the corresponding individual communication region.
A fabricating apparatus comprising: a powder layer forming device configured to form a powder layer; a fabrication liquid discharge device configured to discharge fabrication liquid onto the powder layer; and a discharge controller (501, 508) configured to control the fabrication liquid discharge device to discharge first droplets of the fabrication liquid with a first kinetic energy and then discharge second droplets of the fabrication liquid with a second kinetic energy higher than the first kinetic energy, wherein the second droplets are discharged so that at least some of the second droplets overlaps the first droplets, characterized in that the discharge controller is configured to control discharge of the fabrication liquid discharge device such that a discharge speed of the first droplets is lower than a discharge speed of the second droplets. a powder layer forming device configured to form a powder layer; a fabrication liquid discharge device configured to discharge fabrication liquid onto the powder layer; and a discharge controller (501, 508) configured to control the fabrication liquid discharge device to discharge first droplets of the fabrication liquid with a first kinetic energy and then discharge second droplets of the fabrication liquid with a second kinetic energy higher than the first kinetic energy, wherein the second droplets are discharged so that at least some of the second droplets overlaps the first droplets, characterized in that the discharge controller is configured to control discharge of the fabrication liquid discharge device such that a discharge speed of the first droplets is lower than a discharge speed of the second droplets.
A semiconductor memory comprising: three storage arrays; two verification modules, wherein each verification module of the two verification modules corresponds to storage arrays of the three storage arrays, the each verification module is configured to verify whether an error occurs in data information of the corresponding storage arrays, and the each verification module is connected to a group of global data buses; and a plurality of gating circuits, wherein the gating circuits are connected between the storage arrays and the global data buses, and the gating circuits are configured to control on and off of a data transmission path connecting the global data buses to the storage arrays, wherein the three storage arrays comprise a first array, a second array and a third array; the second array is connected to two second gating circuits, and each of the two second gating circuits is connected with a corresponding one of the global data buses, wherein the first array is connected to at least a first gating circuit, the third array is connected to at least a third gating circuit, wherein the first gating circuit, the second gating circuit and the third gating circuit, which are connected to a same global data bus, are turned on at different time, wherein the semiconductor memory is of a Dynamic Random Access Memory (DRAM) type. three storage arrays; two verification modules, wherein each verification module of the two verification modules corresponds to storage arrays of the three storage arrays, the each verification module is configured to verify whether an error occurs in data information of the corresponding storage arrays, and the each verification module is connected to a group of global data buses; and a plurality of gating circuits, wherein the gating circuits are connected between the storage arrays and the global data buses, and the gating circuits are configured to control on and off of a data transmission path connecting the global data buses to the storage arrays, wherein the three storage arrays comprise a first array, a second array and a third array; the second array is connected to two second gating circuits, and each of the two second gating circuits is connected with a corresponding one of the global data buses, wherein the first array is connected to at least a first gating circuit, the third array is connected to at least a third gating circuit, wherein the first gating circuit, the second gating circuit and the third gating circuit, which are connected to a same global data bus, are turned on at different time, wherein the semiconductor memory is of a Dynamic Random Access Memory (DRAM) type.
A medical implant device, comprising: a light source and a light sensor; and a housing configured to receive the light source and the light sensor, the housing comprising: a first wall portion configured to be positioned over an extraluminal surface of a coronary sinus, the first wall portion comprising a first surface oriented toward the extraluminal surface, a first light-transparent region of the first wall portion configured to allow passage therethrough of an emitted light signal from the light source into the coronary sinus, and a second light-transparent region of the first wall portion configured to allow passage therethrough of a reflected light signal from within the coronary sinus for detection by the light sensor. a light source and a light sensor; and a housing configured to receive the light source and the light sensor, the housing comprising: a first wall portion configured to be positioned over an extraluminal surface of a coronary sinus, the first wall portion comprising a first surface oriented toward the extraluminal surface, a first light-transparent region of the first wall portion configured to allow passage therethrough of an emitted light signal from the light source into the coronary sinus, and a second light-transparent region of the first wall portion configured to allow passage therethrough of a reflected light signal from within the coronary sinus for detection by the light sensor. a first wall portion configured to be positioned over an extraluminal surface of a coronary sinus, the first wall portion comprising a first surface oriented toward the extraluminal surface, a first light-transparent region of the first wall portion configured to allow passage therethrough of an emitted light signal from the light source into the coronary sinus, and a second light-transparent region of the first wall portion configured to allow passage therethrough of a reflected light signal from within the coronary sinus for detection by the light sensor.
A search method for cascading failures in a hybrid AC/DC power system, cascading failures including a first-level failure and a next-level failure caused by the cascade of failures the method being characterized by comprising: step 1: determining an initial failure and forming a failure set of the first-stage failures; setting a DC blocking or the number of failure levels reaching a threshold as a search stop condition; step 2: judging whether cascading failures in the current stage failure set can trigger a DC blocking; if the cascading failure causes a DC blocking, the DC blocking failure is stored in a next stage of the cascading failure; otherwise, based on a pruning search method and an outage risk value, cascading failures are searched on an AC side and the failure set of the next stage is determined; step 3: if the search stop condition is satisfied, stop the search; otherwise, the number of failure stages is increased by one and return to Step 2 to continue the search step 4: providing, after iterations of step 2 and 3, cascading failure chains having a failure chain probability that can cause DC blocking in the hybrid AC/DC power system wherein, in the Step 1, AC lines near a vicinity of a DC terminal location in the hybrid AC/DC power system are selected as the initial failures in the cascading failure search, and the initial failures are simulated in time-domain to check whether it will trigger a DC blocking. step 1: determining an initial failure and forming a failure set of the first-stage failures; setting a DC blocking or the number of failure levels reaching a threshold as a search stop condition; step 2: judging whether cascading failures in the current stage failure set can trigger a DC blocking; if the cascading failure causes a DC blocking, the DC blocking failure is stored in a next stage of the cascading failure; otherwise, based on a pruning search method and an outage risk value, cascading failures are searched on an AC side and the failure set of the next stage is determined; step 3: if the search stop condition is satisfied, stop the search; otherwise, the number of failure stages is increased by one and return to Step 2 to continue the search step 4: providing, after iterations of step 2 and 3, cascading failure chains having a failure chain probability that can cause DC blocking in the hybrid AC/DC power system wherein, in the Step 1, AC lines near a vicinity of a DC terminal location in the hybrid AC/DC power system are selected as the initial failures in the cascading failure search, and the initial failures are simulated in time-domain to check whether it will trigger a DC blocking.
A device for anchoring on biological tissue a prosthetic heart valve, the device including first and second anchoring assemblies mutually couplable to secure biological tissue therebetween, wherein said anchoring assemblies (2, 4) include at least one pair of complementary arched portions having anchoring formations (16, 18, 24, 32) for anchoring on said biological tissue, characterised in that said anchoring formations include extensions (16, 18, 24, 32) which are rigidly connected to said anchoring assemblies (2, 4) and extend radially outwardly from one of said anchoring assemblies in an alternate arrangement with respect to corresponding extensions (16, 18, 24, 32) extending radially outwardly from the other of said anchoring assemblies, whereby, with said anchoring assemblies (2, 4) mutually coupled to secure said biological tissue therebetween, the extensions (16, 18, 24, 32) in said complementary arched portions interdigitate.
A method for implementing uplink resource indication, comprising: receiving, by a user terminal, an uplink resource grant indication, ul grant, carrying an uplink resource index from a base station; resolving, by the user terminal, the uplink resource index from the ul grant; and performing, by the user terminal according to an indicated in advance corresponding relation between the uplink resource index and one or two uplink time domain resources, resource grant on the one or two uplink time domain resources corresponding to the uplink resource index; wherein the uplink resource index is one of a plurality of uplink resource indices, each of the plurality of uplink resource indices corresponds to either one group of one uplink time domain resource or one group of two uplink time domain resources, at least one of the plurality of uplink resource indices corresponds to one group of one uplink time domain resource, at least another one of the plurality of uplink resource indices corresponds to one group of two uplink time domain resources, and the uplink time domain resources in each group are not completely the same. receiving, by a user terminal, an uplink resource grant indication, ul grant, carrying an uplink resource index from a base station; resolving, by the user terminal, the uplink resource index from the ul grant; and performing, by the user terminal according to an indicated in advance corresponding relation between the uplink resource index and one or two uplink time domain resources, resource grant on the one or two uplink time domain resources corresponding to the uplink resource index; wherein the uplink resource index is one of a plurality of uplink resource indices, each of the plurality of uplink resource indices corresponds to either one group of one uplink time domain resource or one group of two uplink time domain resources, at least one of the plurality of uplink resource indices corresponds to one group of one uplink time domain resource, at least another one of the plurality of uplink resource indices corresponds to one group of two uplink time domain resources, and the uplink time domain resources in each group are not completely the same.
An interference filter comprising: a transparent substrate; a layers stack (110, 112) supported by the transparent substrate, the layers stack comprising plurality of layers of at least: layers of amorphous hydrogenated silicon and layers (106, 108) of one or more dielectric materials having a refractive index lower than the refractive index of the amorphous hydrogenated silicon wherein the layers of one or more dielectric materials include layers of a dielectric material having a refractive index in the range 1.9 to 2.7 inclusive and wherein the layers of one or more dielectric materials further include SiO 2 layers; wherein the layers stack is configured to have a passband center wavelength in the range 750-1100 nm inclusive. a transparent substrate; a layers stack (110, 112) supported by the transparent substrate, the layers stack comprising plurality of layers of at least: layers of amorphous hydrogenated silicon and layers (106, 108) of one or more dielectric materials having a refractive index lower than the refractive index of the amorphous hydrogenated silicon wherein the layers of one or more dielectric materials include layers of a dielectric material having a refractive index in the range 1.9 to 2.7 inclusive and wherein the layers of one or more dielectric materials further include SiO 2 layers; wherein the layers stack is configured to have a passband center wavelength in the range 750-1100 nm inclusive. layers of amorphous hydrogenated silicon and layers (106, 108) of one or more dielectric materials having a refractive index lower than the refractive index of the amorphous hydrogenated silicon wherein the layers of one or more dielectric materials include layers of a dielectric material having a refractive index in the range 1.9 to 2.7 inclusive and wherein the layers of one or more dielectric materials further include SiO 2 layers; wherein the layers stack is configured to have a passband center wavelength in the range 750-1100 nm inclusive.
Use of a wet-laid or dry-laid non-woven fabric made of inorganic fibers which is consolidated with a binder system (binder system I), which has at least one organic binder and at least one inorganic filler, and wherein: (i) the applied quantity of the binder system I is between 30 and 90% by weight, wherein the value refers to the total weight of the non-woven fabric after complete drying, and (ii) the content of organic binder(s) in the binder system I is between 2 and 20% by weight, wherein the value refers to the binder system I after complete drying, (iii) the content of inorganic filler(s) in the binder system I is between 98 and 80% by weight, wherein the value refers to the binder system I after complete drying, and (iv) the non-woven fabric consolidated with the binder system I (after drying of the binder system I) has a Gurley porosity (base 100 ml) of at most 200 sec, for A) the production of composite materials and laminated fabrics, wherein the non-woven fabric is filled before producing the composite materials or laminated fabrics with a B-stage capable binder system, B) for the production of non-woven fabrics which are filled with a B-stage capable binder system or C) for the production of decorative composite materials, as integral parts of interior finishings or as laminates for furniture elements, wherein the non-woven fabric is filled before producing the composite materials or laminated fabrics with a B-stage capable binder system. (i) the applied quantity of the binder system I is between 30 and 90% by weight, wherein the value refers to the total weight of the non-woven fabric after complete drying, and (ii) the content of organic binder(s) in the binder system I is between 2 and 20% by weight, wherein the value refers to the binder system I after complete drying, (iii) the content of inorganic filler(s) in the binder system I is between 98 and 80% by weight, wherein the value refers to the binder system I after complete drying, and (iv) the non-woven fabric consolidated with the binder system I (after drying of the binder system I) has a Gurley porosity (base 100 ml) of at most 200 sec, A) the production of composite materials and laminated fabrics, wherein the non-woven fabric is filled before producing the composite materials or laminated fabrics with a B-stage capable binder system, B) for the production of non-woven fabrics which are filled with a B-stage capable binder system or C) for the production of decorative composite materials, as integral parts of interior finishings or as laminates for furniture elements, wherein the non-woven fabric is filled before producing the composite materials or laminated fabrics with a B-stage capable binder system.
A control device of an internal combustion engine, comprising: a torque increasing means for performing fuel injection by operating an injector of the internal combustion engine, thereby increasing output torque of the internal combustion engine; a torque increase amount sensing means (S22, 42) for sensing an increase amount of the output torque caused in connection with the fuel injection or a physical quantity relevant to the increase amount; an injection quantity sensing means (S23, 20a) for sensing an actual injection quantity of the fuel injection or a physical quantity relevant to the injection quantity; a storing means for storing torque that is anticipated to occur when it is assumed that 100% of the actual injection quantity contributes to combustion in the internal combustion engine; a combustion rate calculating means for calculating a combustion rate based on a sensing value of the torque increase amount sensing means (S22, 42) and an increase amount of output torque calculated from a sensing value of the injection quantity sensing means (S23, 20a) based on the torque stored in the storing means, the combustion rate indicating a rate at which the fuel injected through the fuel injection contributes to combustion; and a controlling means for controlling an operation state of the internal combustion engine in accordance with the combustion rate calculated by the combustion rate calculating means. a torque increasing means for performing fuel injection by operating an injector of the internal combustion engine, thereby increasing output torque of the internal combustion engine; a torque increase amount sensing means (S22, 42) for sensing an increase amount of the output torque caused in connection with the fuel injection or a physical quantity relevant to the increase amount; an injection quantity sensing means (S23, 20a) for sensing an actual injection quantity of the fuel injection or a physical quantity relevant to the injection quantity; a storing means for storing torque that is anticipated to occur when it is assumed that 100% of the actual injection quantity contributes to combustion in the internal combustion engine; a combustion rate calculating means for calculating a combustion rate based on a sensing value of the torque increase amount sensing means (S22, 42) and an increase amount of output torque calculated from a sensing value of the injection quantity sensing means (S23, 20a) based on the torque stored in the storing means, the combustion rate indicating a rate at which the fuel injected through the fuel injection contributes to combustion; and a controlling means for controlling an operation state of the internal combustion engine in accordance with the combustion rate calculated by the combustion rate calculating means.
An anterior segment three-dimensional image processing apparatus that receives and processes an anterior segment three-dimensional image of a subject's eye by means of an optical coherence tomography device, the apparatus comprising: a first scleral spur SS position specifying unit (100,S50,S110-S220) that accepts identification of at least three SS positions indicating a spatial coordinate position of a scleral spur of the subject's eye, using at least two representative images from among a plurality of two-dimensional tomographic images constituting the anterior segment three-dimensional image; the apparatus characterized by further comprising a true circle calculating unit (100,S60) that calculates a reference true circle passing through the at least three SS positions of the SS positions identified by the first SS position specifying unit (100,S50,S110-S220) in the anterior segment three-dimensional image; and a second SS position specifying unit (100,S70) that identifies the SS positions in non-representative images other than the representative images from among the plurality of two-dimensional tomographic images, based on the reference true circle calculated by the true circle calculating unit (100,S60). a first scleral spur SS position specifying unit (100,S50,S110-S220) that accepts identification of at least three SS positions indicating a spatial coordinate position of a scleral spur of the subject's eye, using at least two representative images from among a plurality of two-dimensional tomographic images constituting the anterior segment three-dimensional image; the apparatus characterized by further comprising a true circle calculating unit (100,S60) that calculates a reference true circle passing through the at least three SS positions of the SS positions identified by the first SS position specifying unit (100,S50,S110-S220) in the anterior segment three-dimensional image; and a second SS position specifying unit (100,S70) that identifies the SS positions in non-representative images other than the representative images from among the plurality of two-dimensional tomographic images, based on the reference true circle calculated by the true circle calculating unit (100,S60).