mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid discharge apparatus comprising: a conveyor configured to convey a substrate in a conveyance direction; a resin layer applier configured to apply a resin layer containing a resin onto the substrate conveyed by the conveyor ; a liquid discharger configured to discharge a liquid onto the resin layer to apply a droplet onto the resin layer ; an acquirer configured to acquire a physical property of the resin layer ; an adjuster configured to adjust the physical property of the resin layer ; and circuitry configured to control the adjuster to control the physical property of the resin layer according to the physical property acquired by the acquirer . a conveyor configured to convey a substrate in a conveyance direction; a resin layer applier configured to apply a resin layer containing a resin onto the substrate conveyed by the conveyor ; a liquid discharger configured to discharge a liquid onto the resin layer to apply a droplet onto the resin layer ; an acquirer configured to acquire a physical property of the resin layer ; an adjuster configured to adjust the physical property of the resin layer ; and circuitry configured to control the adjuster to control the physical property of the resin layer according to the physical property acquired by the acquirer .
A laser ablation tomography system , comprising: a specimen support for supporting a specimen to be imaged, a specimen axis (A-A) being defined from a fore end of the specimen to an aft end of the specimen ; the system further comprising a laser system operable to produce a laser sheet in an imaging plane intersecting the specimen axis (A-A) substantially perpendicular thereto, the laser sheet operable to ablate a cross-sectional slice of the specimen at the imaging plane thereby exposing a cross-sectional surface of the specimen at the imaging plane; and an imaging system with a focal plane co-planar with the laser sheet or the imaging plane, the imaging system comprising a camera operable to image the cross-sectional surface of the specimen facing the camera and being ablated and to obtain a visible light image of the cross-sectional surface during, before or after the laser sheet ablates a cross-sectional slice of the specimen . a specimen support for supporting a specimen to be imaged, a specimen axis (A-A) being defined from a fore end of the specimen to an aft end of the specimen ; the system further comprising a laser system operable to produce a laser sheet in an imaging plane intersecting the specimen axis (A-A) substantially perpendicular thereto, the laser sheet operable to ablate a cross-sectional slice of the specimen at the imaging plane thereby exposing a cross-sectional surface of the specimen at the imaging plane; and an imaging system with a focal plane co-planar with the laser sheet or the imaging plane, the imaging system comprising a camera operable to image the cross-sectional surface of the specimen facing the camera and being ablated and to obtain a visible light image of the cross-sectional surface during, before or after the laser sheet ablates a cross-sectional slice of the specimen .
A method performed by a wireless device configured to operate in a wireless communication system, the method comprising: receiving (S100) a group common control signal from a network, wherein the group common control signal is scheduled to a group of wireless devices with a radio network temporary identity, RNTI, specific to the group common control signal; and receiving a signal other than the group common control signal from the network, wherein the signal other than the group common control signal is a semi-static configuration which is specifically configured for the wireless device, characterized in that , the semi-static configuration includes a configuration for transmission of a sounding reference signal, SRS and/or a configuration for reception of a channel state information reference signal, CSI-RS, and wherein the group common control signal is prioritized over the semi-static configuration. receiving (S100) a group common control signal from a network, wherein the group common control signal is scheduled to a group of wireless devices with a radio network temporary identity, RNTI, specific to the group common control signal; and receiving a signal other than the group common control signal from the network, wherein the signal other than the group common control signal is a semi-static configuration which is specifically configured for the wireless device, characterized in that , the semi-static configuration includes a configuration for transmission of a sounding reference signal, SRS and/or a configuration for reception of a channel state information reference signal, CSI-RS, and wherein the group common control signal is prioritized over the semi-static configuration.
A door handle assembly for a motor vehicle , including a handle mount that can be installed on the vehicle, a handle rotatably supported on the handle mount for opening a door or hatch of the motor vehicle , and a coupling device rotatably supported on the handle mount , through which an actuation of the handle can be transferred to a locking assembly on the vehicle, wherein a hinged element connects the coupling device and the handle to one another such that they can pivot, wherein the hinged element moveably supports an actuating means which, in the operating position, can be moved in a translatory manner between an installation position and an operating position through rotation thereof and which is supported on the coupling device such that it can move toward it and is engaged with the handle , and which, in the installation position, bears on a blocking surface of the coupling device that blocks a rotation of the actuating means , and is disengaged from the handle , wherein the actuation means is formed as a screw, the head top of which has a toothing which, in the installation position, is operatively connected with the blocking surface , wherein the actuating means arranges the hinged element such that, in the installation position, it is rotationally fixed with respect to the coupling device .
A method of handover control in a radio communication system in which a base station controller and a first Home NodeB, HNB, gateway apparatus are connected to a communication network, wherein the base station controller has under its control at least one base station connected thereto, and the first HNB-gateway apparatus has under its control at least one hierarchically lower-level second HNB-gateway apparatus connected thereto, wherein the hierarchically lower-level second gateway apparatus has under its control at least one HNB base station connected thereto, characterized in that : the first HNB-gateway apparatus acquires, from the second HNB-gateway apparatus, cell information of a cell controlled by the HNB-base station under the control of the second HNB-gateway apparatus; wherein the cell controlled by the HNB-base station neighbors a cell controlled by the base station; and in a hand-in phase for handover from the base station to the HNB-base station, the first HNB-gateway apparatus identifies a target cell of the handover using the cell information. the first HNB-gateway apparatus acquires, from the second HNB-gateway apparatus, cell information of a cell controlled by the HNB-base station under the control of the second HNB-gateway apparatus; wherein the cell controlled by the HNB-base station neighbors a cell controlled by the base station; and in a hand-in phase for handover from the base station to the HNB-base station, the first HNB-gateway apparatus identifies a target cell of the handover using the cell information.
A method for wireless communications by a user equipment, UE , comprising: determining , based on an indication received in a narrowband signal on a narrowband region of a bandwidth comprising a plurality of narrowband regions, whether to wait for a delay period, determined based on a configuration received from a network entity, before releasing a radio resource control, RRC, connection, wherein the configuration comprises an NPDCCH period configured on the UE; and releasing the RRC connection at a time in accordance with the determination, wherein the narrowband signal comprises a command to release the RRC connection; the indication comprises a set polling bit in a radio link control, RLC, layer portion of the narrowband signal; the determination is to wait for the delay period, based on the polling bit; and the method further comprises: sending a hybrid automatic retransmission request, HARQ, acknowledgment, ACK, of the narrowband signal prior to releasing the RRC connection; receiving a first downlink control information, DCI, comprising an No grant having a new data indicator, NDI, that is not toggled; and sending a layer 2, L2, ACK of the narrowband signal, via transmission resources indicated in the No grant, prior to releasing the RRC connection. determining , based on an indication received in a narrowband signal on a narrowband region of a bandwidth comprising a plurality of narrowband regions, whether to wait for a delay period, determined based on a configuration received from a network entity, before releasing a radio resource control, RRC, connection, wherein the configuration comprises an NPDCCH period configured on the UE; and releasing the RRC connection at a time in accordance with the determination, wherein the narrowband signal comprises a command to release the RRC connection; the indication comprises a set polling bit in a radio link control, RLC, layer portion of the narrowband signal; the determination is to wait for the delay period, based on the polling bit; and the method further comprises: sending a hybrid automatic retransmission request, HARQ, acknowledgment, ACK, of the narrowband signal prior to releasing the RRC connection; receiving a first downlink control information, DCI, comprising an No grant having a new data indicator, NDI, that is not toggled; and sending a layer 2, L2, ACK of the narrowband signal, via transmission resources indicated in the No grant, prior to releasing the RRC connection. sending a hybrid automatic retransmission request, HARQ, acknowledgment, ACK, of the narrowband signal prior to releasing the RRC connection; receiving a first downlink control information, DCI, comprising an No grant having a new data indicator, NDI, that is not toggled; and sending a layer 2, L2, ACK of the narrowband signal, via transmission resources indicated in the No grant, prior to releasing the RRC connection.
A method for manufacturing a semiconductor apparatus comprising at least: a transferring step of transferring a film-like wafer mold material onto a wafer having semiconductor devices on a surface thereof, wherein the wafer mold material has a resin layer containing a filler and at least any one of an annular shape silicone resin having an epoxy group, a silicone resin having an epoxy group which is obtained by hydrosilylation of organohydrogenpolysiloxane and polysiloxane containing an alkenyl group, and a polyimide silicone resin, the resin layer is formed on a support film , a protective film is provided on the other side of the resin layer , the wafer mold material is formed into a film-like shape, and the filler content included in the resin layer is 1 to 97% by mass assuming that a total mass of the resin layer is 100% by mass; removing the protective film before the transferring step and removing the support film after the transferring step; a heating step of heating the transferred wafer mold material and sealing the semiconductor devices ; and a piece forming step of cutting the wafer together with the wafer mold material into each piece, the wafer having semiconductor devices on the surface thereof having the heated wafer mold material. a transferring step of transferring a film-like wafer mold material onto a wafer having semiconductor devices on a surface thereof, wherein the wafer mold material has a resin layer containing a filler and at least any one of an annular shape silicone resin having an epoxy group, a silicone resin having an epoxy group which is obtained by hydrosilylation of organohydrogenpolysiloxane and polysiloxane containing an alkenyl group, and a polyimide silicone resin, the resin layer is formed on a support film , a protective film is provided on the other side of the resin layer , the wafer mold material is formed into a film-like shape, and the filler content included in the resin layer is 1 to 97% by mass assuming that a total mass of the resin layer is 100% by mass; removing the protective film before the transferring step and removing the support film after the transferring step; a heating step of heating the transferred wafer mold material and sealing the semiconductor devices ; and a piece forming step of cutting the wafer together with the wafer mold material into each piece, the wafer having semiconductor devices on the surface thereof having the heated wafer mold material.
A hydraulic driving system for barring for use in a wind generator set, comprising: three or more main drive hydraulic cylinders , which are divided into two groups to provide pulling and pushing forces to a driven impeller , each main drive hydraulic cylinder including a cylinder body and a piston rod which is disposed within the cylinder body to divide the cylinder body into a rod cavity and a rodless cavity, wherein an oil line for the rod cavity and an oil line for the rodless cavity of each main drive hydraulic cylinder are controlled by a same control valve module; and a control device, which controls the control valve module according to wind and/or load signals, to simultaneously convert flow directions of hydraulic oil in the oil line for the rod cavity and the oil line for the rodless cavity of at least one of the three or more main drive hydraulic cylinders , characterized in that , the control valve module of each main drive hydraulic cylinder , comprises a pressure reducing valve which is disposed in the oil line for the rodless cavity, and the pressure reducing valve reduces pressure of the hydraulic oil when the hydraulic oil enters into the oil line for the rodless cavity; and at least one of the three or more main drive hydraulic cylinders is provided with a displacement sensor which is used to detect displacement of the piston rod. three or more main drive hydraulic cylinders , which are divided into two groups to provide pulling and pushing forces to a driven impeller , each main drive hydraulic cylinder including a cylinder body and a piston rod which is disposed within the cylinder body to divide the cylinder body into a rod cavity and a rodless cavity, wherein an oil line for the rod cavity and an oil line for the rodless cavity of each main drive hydraulic cylinder are controlled by a same control valve module; and a control device, which controls the control valve module according to wind and/or load signals, to simultaneously convert flow directions of hydraulic oil in the oil line for the rod cavity and the oil line for the rodless cavity of at least one of the three or more main drive hydraulic cylinders , characterized in that , the control valve module of each main drive hydraulic cylinder , comprises a pressure reducing valve which is disposed in the oil line for the rodless cavity, and the pressure reducing valve reduces pressure of the hydraulic oil when the hydraulic oil enters into the oil line for the rodless cavity; and at least one of the three or more main drive hydraulic cylinders is provided with a displacement sensor which is used to detect displacement of the piston rod.
A method for manufacturing a light emitting device package comprising: forming a light emitting chip comprising electrode pads disposed on a lower side thereof; wherein the light emitting chip includes a second conductivity-type semiconductor layer , an active layer disposed on the second conductivity-type semiconductor layer , a first conductivity-type semiconductor layer disposed on the active layer , and a substrate disposed on the first conductivity-type semiconductor layer ; forming a wavelength conversion unit covering at least upper and side surfaces of the light emitting chip ; and forming a reflective unit covering the side surface of the light emitting chip , wherein the wavelength conversion unit is interposed between the side surface of the light emitting chip and the reflective unit , characterized in that a side surface of the wavelength conversion unit , which includes a phosphor and a resin, is subjected to plasma treatment and is bonded to the reflective unit . forming a light emitting chip comprising electrode pads disposed on a lower side thereof; wherein the light emitting chip includes a second conductivity-type semiconductor layer , an active layer disposed on the second conductivity-type semiconductor layer , a first conductivity-type semiconductor layer disposed on the active layer , and a substrate disposed on the first conductivity-type semiconductor layer ; forming a wavelength conversion unit covering at least upper and side surfaces of the light emitting chip ; and forming a reflective unit covering the side surface of the light emitting chip , wherein the wavelength conversion unit is interposed between the side surface of the light emitting chip and the reflective unit , characterized in that a side surface of the wavelength conversion unit , which includes a phosphor and a resin, is subjected to plasma treatment and is bonded to the reflective unit .
A tensioning device for a rotary cutting apparatus comprising: a body ; a tip portion adjacent the body; the device having an unsymmetrical profile characterized by the device comprising at least one vacuum orifice extending from at least part of the tip portion through the body. a body ; a tip portion adjacent the body; the device having an unsymmetrical profile characterized by the device comprising at least one vacuum orifice extending from at least part of the tip portion through the body.
Fastening unit having a radio and/or sensor module , which is provided to be connected to an external application unit , a first housing part of the fastening unit having a connection region with at least one connection element , the connection region being detachably connectable to the radio and/or sensor module by means of the at least one connection element of the connection region , characterized in that the first housing part has at least one first receiving region for receiving a power supply cable , and in that the fastening unit has at least one second housing part with at least one second receiving region for receiving the power supply cable , wherein the power supply cable can be integrated in the external application unit , and wherein the first housing part of the fastening unit has at least one first closure element and the second housing part of the fastening unit has at least one second closure element , wherein the first housing part and the second housing part can be connected to each other at least via the closure elements .
A denture bearing mechanism, comprising a fixed seat , a bearing table and driving assemblies , wherein the fixed seat is detachably mounted on a storage table of a denture three-dimensional scanner , the bearing table is arranged on the fixed seat and connected to the driving assemblies , the driving assemblies are used for driving the bearing table to move relative to the fixed seat , and the bearing table is provided with at least two scanning stations used for placing denture models; wherein the driving assemblies comprise a second driving assembly , and the second driving assembly is configured to drive the bearing table to horizontally move in a reciprocation manner relative to the fixed seat , so as to adjust a position of each of the at least two scanning stations ; the second driving assembly comprises a second driving piece , a lead screw and a nut , wherein the second driving piece is connected with the lead screw , and the nut penetrates out of the lead screw and is fixed to the bearing table ; a first limiting switch and a second limiting switch are respectively provided at two ends of the fixed seat , the first limiting switch and the second limiting switch are respectively electrically connected with the second driving assembly , and a photoelectric blocking plate is fixed on the nut . wherein the driving assemblies comprise a second driving assembly , and the second driving assembly is configured to drive the bearing table to horizontally move in a reciprocation manner relative to the fixed seat , so as to adjust a position of each of the at least two scanning stations ; the second driving assembly comprises a second driving piece , a lead screw and a nut , wherein the second driving piece is connected with the lead screw , and the nut penetrates out of the lead screw and is fixed to the bearing table ; a first limiting switch and a second limiting switch are respectively provided at two ends of the fixed seat , the first limiting switch and the second limiting switch are respectively electrically connected with the second driving assembly , and a photoelectric blocking plate is fixed on the nut .
A method of manufacturing a cellulosic film, particularly a cellulosic food packaging film, especially a detectable cellulosic film, which cellulosic film comprises detectable particles incorporated therein, wherein the method comprises introducing and/or adding detectable particles into a solution or dispersion comprising cellulose and/or a cellulose precursor or derivative in the presence of at least one dispersant, wherein the dispersant is a surface-active detergent or a surface-active polymer, followed by regenerating and/or recovering cellulose from the solution or dispersion in the presence of the detectable particles, so as to obtain a cellulosic film, particularly a cellulosic food packing film, comprising the detectable particles incorporated therein in homogeneous distribution, wherein the detectable particles are magnetic and wherein the detectable particles are detectable by a metal detection device.
A multi-angle shifting structure, comprising a driving module, and at least two light-emitting units arranged side by side or in parallel, wherein each of the light-emitting units comprises at least one light-emitting module , each of the light-emitting units has a different light-emitting angle, and the driving module is configured to separately control on and off and/or drive current of each of the light-emitting units, wherein the multi-angle shifting structure further comprises a grid lamp cup , the grid lamp cup is provided with a plurality of grooves disposed at intervals along a length direction of the grid lamp cup , a first through hole is provided at a bottom portion of each of the grooves , and each light-emitting module is provided corresponding to the respective first through hole , characterized in that a light shielding angle of the grid lamp cup is 0 to 25 °.