mhurhangee/patent-ind-claim-en huggingface dataset:
System comprising a contact carrier and a corresponding contact carrier , wherein both the contact carrier and the corresponding contact carrier are each formed from an insulating material, have a substantially rectangular shape and form at least one cavity to hold a contact element, wherein both the contact carrier and the corresponding contact carrier each have a plug-in region and a holding region , wherein the at least one cavity extends at least through the holding region along the plug-in direction of the respective contact carrier , wherein both the contact carrier and the corresponding contact carrier have means for their own fixing in the holding region , and wherein the respective plug-in region both of the contact carrier and of the corresponding contact carrier comprises at least four side surfaces extending away from the holding region , wherein the plug-in region of the contact carrier can be inserted in a form-fitting manner into the plug-in region of the corresponding contact carrier , wherein the contact carrier has a top surface which terminates the plug-in region and which forms the plug-in face of the contact carrier , wherein a circumferential edge is formed in the region between the side surfaces and the top surface of the plug-in region , wherein the edge is formed as an insertion bevel , wherein the plug-in region between two abutting side surfaces is respectively provided with a radius , and wherein the insertion bevel has recesses in the region of the corner regions of the plug-in region which are rounded off by the radii .
A handover method, comprising: sending , by a source base station, a handover request to a target base station, wherein the handover request comprises a context of a current serving small node, a context of user equipment, UE, and an indication for using the current serving small node as a user plane serving node after the UE is handed over, and using the target base station as a control plane serving node after the UE is handed over; receiving , by the source base station, a handover request acknowledgement from the target base station, wherein the handover request acknowledgement comprises radio resource control, RRC, reconfiguration information of the UE and configuration information of the current serving small node; and sending , by the source base station, the configuration information of the current serving small node to the current serving small node, and sending, by the source base station, the RRC reconfiguration information of the UE to the UE. sending , by a source base station, a handover request to a target base station, wherein the handover request comprises a context of a current serving small node, a context of user equipment, UE, and an indication for using the current serving small node as a user plane serving node after the UE is handed over, and using the target base station as a control plane serving node after the UE is handed over; receiving , by the source base station, a handover request acknowledgement from the target base station, wherein the handover request acknowledgement comprises radio resource control, RRC, reconfiguration information of the UE and configuration information of the current serving small node; and sending , by the source base station, the configuration information of the current serving small node to the current serving small node, and sending, by the source base station, the RRC reconfiguration information of the UE to the UE.
A method for removing a coating from an article the article comprising: a substrate comprising a ceramic matrix composite, the composite comprising silicon carbide, silicon nitride, or a combination comprising of the aforementioned; a first material disposed over the substrate , the first material comprising elemental silicon, an alloy comprising elemental silicon, a silicide, silicon carbide, silicon nitride, or a combination comprising the aforementioned; a second material in contact with the first material, the second material comprising an oxide comprising silicon; and a third material disposed over the second material , the third material comprising an oxide; the method comprising: heating the article to a processing temperature in an environment having a partial pressure of oxygen that is less than an equilibrium partial pressure of oxygen for chemical equilibrium between the first material and the second material at the processing temperature; and removing the third material , and hence the coating, from the article . a substrate comprising a ceramic matrix composite, the composite comprising silicon carbide, silicon nitride, or a combination comprising of the aforementioned; a first material disposed over the substrate , the first material comprising elemental silicon, an alloy comprising elemental silicon, a silicide, silicon carbide, silicon nitride, or a combination comprising the aforementioned; a second material in contact with the first material, the second material comprising an oxide comprising silicon; and a third material disposed over the second material , the third material comprising an oxide; the method comprising: heating the article to a processing temperature in an environment having a partial pressure of oxygen that is less than an equilibrium partial pressure of oxygen for chemical equilibrium between the first material and the second material at the processing temperature; and removing the third material , and hence the coating, from the article .
An image processing apparatus , comprising a core configured to perform a fast Fourier transformation, FFT, operation on image data; a memory configured to store data that is output by the core; and a controller configured to control the core to perform a primary 2D FFT operation and a secondary 2D FFT operation by executing a 1D FFT operation twice on the image data in terms of column and rows directions for each of 2D FFT operations, wherein the core is resettable based on an amount of the image data, wherein the order of execution, in terms of column and row directions, of 1D FFT operations for the primary 2D FFT operation is opposite to that of execution of 1D FFT operations for the secondary 2D FFT operation, wherein 1D FFT operations are performed in the column direction and then in the row direction when a primary 2D FFT operation is performed, 1D FFT operations are performed in the row direction and then in the column direction when a secondary 2D FFT operation is performed, and wherein the controller is further configured to set the core based on a size of the column of the image data, when performing 1D FFT operation on the image data in the row direction, and set the core based on a size of the row of the image data, when performing 1D FFT operation on the image data in the column direction. a core configured to perform a fast Fourier transformation, FFT, operation on image data; a memory configured to store data that is output by the core; and a controller configured to control the core to perform a primary 2D FFT operation and a secondary 2D FFT operation by executing a 1D FFT operation twice on the image data in terms of column and rows directions for each of 2D FFT operations, wherein the core is resettable based on an amount of the image data, wherein the order of execution, in terms of column and row directions, of 1D FFT operations for the primary 2D FFT operation is opposite to that of execution of 1D FFT operations for the secondary 2D FFT operation, wherein 1D FFT operations are performed in the column direction and then in the row direction when a primary 2D FFT operation is performed, 1D FFT operations are performed in the row direction and then in the column direction when a secondary 2D FFT operation is performed, and wherein the controller is further configured to set the core based on a size of the column of the image data, when performing 1D FFT operation on the image data in the row direction, and set the core based on a size of the row of the image data, when performing 1D FFT operation on the image data in the column direction.
Method for fabricating an acoustic wave device comprising at least one surface acoustic wave (SAW) filter and one bulk acoustic wave (BAW) filter, characterized in that it comprises the following steps: - forming a stack comprising at least one layer of second piezoelectric material (P iézo2 ), a first metallization layer (M 1 ) and a layer of a first monocrystalline piezoelectric material (P iézo1 ) comprising the application of the layer of first piezoelectric material (P iézo1 ) associated with the first metallization layer (M 1 ) on the layer of second piezoelectric material (P iézo2 ); - the partial etching of said stack so as to define a first area in which the first and second piezoelectric materials are present and a second area in which the first piezoelectric material and the first metallization layer are absent; - producing a second metallization (M 2 ) in the first area to define the bulk acoustic wave filter incorporating the first piezoelectric material and a third metallization (M 3 ) in the second area to define the surface acoustic wave filter incorporating the second piezoelectric material. - forming a stack comprising at least one layer of second piezoelectric material (P iézo2 ), a first metallization layer (M 1 ) and a layer of a first monocrystalline piezoelectric material (P iézo1 ) comprising the application of the layer of first piezoelectric material (P iézo1 ) associated with the first metallization layer (M 1 ) on the layer of second piezoelectric material (P iézo2 ); - the partial etching of said stack so as to define a first area in which the first and second piezoelectric materials are present and a second area in which the first piezoelectric material and the first metallization layer are absent; - producing a second metallization (M 2 ) in the first area to define the bulk acoustic wave filter incorporating the first piezoelectric material and a third metallization (M 3 ) in the second area to define the surface acoustic wave filter incorporating the second piezoelectric material.
A surface decoration structure including an undercoat film, a silver mirror film layer, and a topcoat film formed on a surface of a substrate, wherein the silver mirror film layer includes a film of stacked nanometer-sized silver particles including nanometer-sized silver particles and a dissolved polymer dispersing agent, and the topcoat film is formed using, as a solvent, at least one member selected from the group consisting of an aliphatic hydrocarbon compound, an aliphatic hydrocarbon compound solution including 10% by mass or less of an aromatic compound, and diisobutyl ketone, characterised in that the topcoat film and/or the undercoat film includes an ultraviolet absorber and a light stabilizer selected from any of combinations to : a benzotriazole compound and a benzoate compound, a benzotriazole compound and a hindered amine compound, or a triazine compound and a hindered amine compound. the silver mirror film layer includes a film of stacked nanometer-sized silver particles including nanometer-sized silver particles and a dissolved polymer dispersing agent, and the topcoat film is formed using, as a solvent, at least one member selected from the group consisting of an aliphatic hydrocarbon compound, an aliphatic hydrocarbon compound solution including 10% by mass or less of an aromatic compound, and diisobutyl ketone, characterised in that the topcoat film and/or the undercoat film includes an ultraviolet absorber and a light stabilizer selected from any of combinations to : a benzotriazole compound and a benzoate compound, a benzotriazole compound and a hindered amine compound, or a triazine compound and a hindered amine compound. a benzotriazole compound and a benzoate compound, a benzotriazole compound and a hindered amine compound, or a triazine compound and a hindered amine compound.
A seat assembly , comprising: a seat bottom having a deformable seat shell configured to change shape with a changing occupant load distribution; a seat back coupled to and extending from the seat bottom ; a motion control link coupling the deformable seat shell with a support frame via a frame joint and a shell joint so that said joints can undergo relative movement, the frame joint being at a fixed position relative to the support frame and the shell joint being at a fixed position relative to the deformable seat shell , wherein the motion control link constrains said relative movement; characterised in that the seat assembly comprises a cam surface , wherein the motion control link elastically bends along the cam surface when said joints undergo relative movement. a seat bottom having a deformable seat shell configured to change shape with a changing occupant load distribution; a seat back coupled to and extending from the seat bottom ; a motion control link coupling the deformable seat shell with a support frame via a frame joint and a shell joint so that said joints can undergo relative movement, the frame joint being at a fixed position relative to the support frame and the shell joint being at a fixed position relative to the deformable seat shell , wherein the motion control link constrains said relative movement; characterised in that the seat assembly comprises a cam surface , wherein the motion control link elastically bends along the cam surface when said joints undergo relative movement.
A method performed by a wireless device for Semi-Persistent Channel State Information, SP-CSI, reporting for a wireless communication system, the method comprising: receiving, from a base station , an uplink downlink control information, DCI, message for activation or deactivation of the SP-CSI reporting, wherein: the uplink DCI message comprises Cyclic Redundancy Check, CRC, bits that are scrambled with a SP-CSI Cell Radio Network Temporary Identifier, SP-CSI-RNTI, of the wireless device; and the uplink DCI message comprises information that indicates whether the uplink DCI message is for the activation of the SP-CSI reporting or for the deactivation of the SP-CSI reporting, wherein the information comprises bit values configured in one or more bit fields of the uplink DCI message and the one or more bit fields comprise one or more bit fields defined for the purpose of providing a redundancy version; wherein the one or more bit fields defined for the purpose of providing the redundancy version are set to all zeros and all bits of a field for communicating a Hybrid Automatic Repeat Request, HARQ, process number are set to zero; making, based on the information comprised in the uplink DCI message, a determination as to whether to activate the SP-CSI reporting or to deactivate the SP-CSI reporting; and activating or deactivating the SP-CSI reporting in accordance with the determination. the uplink DCI message comprises Cyclic Redundancy Check, CRC, bits that are scrambled with a SP-CSI Cell Radio Network Temporary Identifier, SP-CSI-RNTI, of the wireless device; and the uplink DCI message comprises information that indicates whether the uplink DCI message is for the activation of the SP-CSI reporting or for the deactivation of the SP-CSI reporting, wherein the information comprises bit values configured in one or more bit fields of the uplink DCI message and the one or more bit fields comprise one or more bit fields defined for the purpose of providing a redundancy version; wherein the one or more bit fields defined for the purpose of providing the redundancy version are set to all zeros and all bits of a field for communicating a Hybrid Automatic Repeat Request, HARQ, process number are set to zero; making, based on the information comprised in the uplink DCI message, a determination as to whether to activate the SP-CSI reporting or to deactivate the SP-CSI reporting; and activating or deactivating the SP-CSI reporting in accordance with the determination.
A method for mitigating interference in a wireless network , comprising: identifying, at a serving base station , an interfering time division duplexing, TDD, configuration, and interference resulting from an uplink/downlink mismatch between a communication of the serving base station and a communication of a neighbor base station , the interfering TDD configuration being identified at least by: receiving signaling from a user equipment , UE, wherein the signaling indicates interference identified by the UE ; detecting a downlink signal of the neighbor base station during an uplink subframe for a UE served by the serving base station , or detecting an energy of common reference signal, CRS, tones or channel state information reference signal, CSI-RS, tones transmitted by the neighbor base station ; performing interference management based at least in part on the identified interfering TDD configuration; and redefining, at the serving base station , a hybrid automatic repeat request, HARQ, configuration for mismatched subframes based on the identified interference, wherein redefining the HARQ configuration includes changing HARQ timing and acknowledgement / non-acknowledgement ACK/NACK, locations. identifying, at a serving base station , an interfering time division duplexing, TDD, configuration, and interference resulting from an uplink/downlink mismatch between a communication of the serving base station and a communication of a neighbor base station , the interfering TDD configuration being identified at least by: receiving signaling from a user equipment , UE, wherein the signaling indicates interference identified by the UE ; detecting a downlink signal of the neighbor base station during an uplink subframe for a UE served by the serving base station , or detecting an energy of common reference signal, CRS, tones or channel state information reference signal, CSI-RS, tones transmitted by the neighbor base station ; receiving signaling from a user equipment , UE, wherein the signaling indicates interference identified by the UE ; detecting a downlink signal of the neighbor base station during an uplink subframe for a UE served by the serving base station , or detecting an energy of common reference signal, CRS, tones or channel state information reference signal, CSI-RS, tones transmitted by the neighbor base station ; performing interference management based at least in part on the identified interfering TDD configuration; and redefining, at the serving base station , a hybrid automatic repeat request, HARQ, configuration for mismatched subframes based on the identified interference, wherein redefining the HARQ configuration includes changing HARQ timing and acknowledgement / non-acknowledgement ACK/NACK, locations.
A receiver comprising a low noise amplifier which comprises a pair of complementary devices (M2, M3) having inputs coupled together and having outputs coupled together, wherein an input signal is fed to the pair of complementary devices (M2, M3), the inputs are further coupled to the outputs via a first switchable coupling means, a second switchable coupling means (M1) situated between a source of a specified voltage and the inputs of the complementary devices (M2, M3) or situated between the inputs of the complementary devices (M2, M3) and a potential more negative than the source of the specified voltage, and the first switchable coupling means and the second switchable coupling means (M1) are adapted to establish the specified voltage at the inputs and outputs of the complementary devices (M2, M3), the receiver comprising: a lower power consumption mode if a logic level enable signal turns off the first switchable coupling means and turns on the second switchable coupling means (M1); and a higher power consumption mode if the logic enable signal turns on the first switchable coupling means and turns off the second switchable coupling means (M1) enabling the complementary devices (M2, M3) to operate as complementary push-pull devices. a lower power consumption mode if a logic level enable signal turns off the first switchable coupling means and turns on the second switchable coupling means (M1); and a higher power consumption mode if the logic enable signal turns on the first switchable coupling means and turns off the second switchable coupling means (M1) enabling the complementary devices (M2, M3) to operate as complementary push-pull devices.
A building structure comprising a single piece mineral wool insulation panel arranged in a cavity between first and second structural plates, in which the single piece mineral wool insulation panel has a first, planar major surface and a second planar major surface , the first and second major surfaces of the mineral wool insulation panel being parallel to each other; in which the first major surface of the mineral wool insulation panel is arranged adjacent to a planar, cavity side major surface of the first structural plate, and in which the second major surface of the mineral wool insulation panel is arranged adjacent to a planar, cavity side major surface of the second structural plate, and in which the mineral wool insulation panel comprises a plurality of acoustic cavities positioned between its first and second major surfaces; and wherein each of the plurality of acoustic cavities is surrounded or substantially surrounded by the mineral wool structure, characterized in that the acoustic cavities are air cavities. in which the single piece mineral wool insulation panel has a first, planar major surface and a second planar major surface , the first and second major surfaces of the mineral wool insulation panel being parallel to each other; in which the first major surface of the mineral wool insulation panel is arranged adjacent to a planar, cavity side major surface of the first structural plate, and in which the second major surface of the mineral wool insulation panel is arranged adjacent to a planar, cavity side major surface of the second structural plate, and in which the mineral wool insulation panel comprises a plurality of acoustic cavities positioned between its first and second major surfaces; and wherein each of the plurality of acoustic cavities is surrounded or substantially surrounded by the mineral wool structure, characterized in that the acoustic cavities are air cavities.
A system comprising: a flexible display configured to display an image; a sensor connected to the flexible display, the sensor configured to sense an amount of flexure of the flexible display associated with a movement by a user of a first portion of the flexible display relative to a second portion of the flexible display, the sensor further configured to output an output signal based on the amount of flexure; a haptic output device connected to the flexible display, the haptic output device being configured to change a resistance to said movement by the user upon receipt of a haptic control signal; and a processor in signal communication with the flexible display, the sensor and the haptic output device, the processor configured to receive the output signal from the sensor based on the amount of flexure and generate the haptic control signal based on the output signal from the sensor. a flexible display configured to display an image; a sensor connected to the flexible display, the sensor configured to sense an amount of flexure of the flexible display associated with a movement by a user of a first portion of the flexible display relative to a second portion of the flexible display, the sensor further configured to output an output signal based on the amount of flexure; a haptic output device connected to the flexible display, the haptic output device being configured to change a resistance to said movement by the user upon receipt of a haptic control signal; and a processor in signal communication with the flexible display, the sensor and the haptic output device, the processor configured to receive the output signal from the sensor based on the amount of flexure and generate the haptic control signal based on the output signal from the sensor.