mhurhangee/patent-ind-claim-en huggingface dataset:
A paint cup for a spray gun, having a cup part , which is provided with a closable paint opening , and a lid , which are connected to one another in a sealing manner at an opening which is round in cross-section, wherein the lid has at least two dimensionally stable wings which are located close to one another and project radially from the round opening and are designed such that, when the lid is removed, a force can be exerted on the lid via the wings in order to move the lid and the cup part relative to one another, characterized in that the lid has at least one cap which is molded on such that it can be torn off to close the paint opening and which is arranged between the two wings lying close together and is protected by these two wings lying close together, whereby unintentional loosening of the cap is avoided.
A two stage shock strut for use in a landing gear assembly, comprising: a proximal end and a distal end opposite the proximal end ; a first cylinder defining a first volume proximal to the proximal end ; a first piston head moveably positioned within the first volume and defining a first fluid chamber and a third fluid chamber within the first volume , such that the first fluid chamber is proximal to the proximal end and the third fluid chamber is distal to the proximal end ; a second cylinder defining a second volume proximal to the distal end ; a Z piston head moveably positioned within the second volume and defining a second fluid chamber and a fourth fluid chamber within the second volume , such that the second fluid chamber is proximal to the distal end , the fourth fluid chamber is distal to the distal end and the fourth fluid chamber is in fluid communication with the third fluid chamber ; a bleed port positioned on the distal end of the two stage shock strut ; and a tube extending from the fourth fluid chamber through the Z piston head and the second fluid chamber to the bleed port , and characterized by the first and second fluid chambers being filled with a gas and the third and fourth fluid chambers being filled with a hydraulic fluid. a proximal end and a distal end opposite the proximal end ; a first cylinder defining a first volume proximal to the proximal end ; a first piston head moveably positioned within the first volume and defining a first fluid chamber and a third fluid chamber within the first volume , such that the first fluid chamber is proximal to the proximal end and the third fluid chamber is distal to the proximal end ; a second cylinder defining a second volume proximal to the distal end ; a Z piston head moveably positioned within the second volume and defining a second fluid chamber and a fourth fluid chamber within the second volume , such that the second fluid chamber is proximal to the distal end , the fourth fluid chamber is distal to the distal end and the fourth fluid chamber is in fluid communication with the third fluid chamber ; a bleed port positioned on the distal end of the two stage shock strut ; and a tube extending from the fourth fluid chamber through the Z piston head and the second fluid chamber to the bleed port , and characterized by the first and second fluid chambers being filled with a gas and the third and fourth fluid chambers being filled with a hydraulic fluid.
A lens mount , configured to carry a lens and comprising a photosensitive structure and a driving structure arranged on a first side, distal to the lens , of the photosensitive structure and connected to the photosensitive structure , wherein the driving structure comprises a first wiring board , M connecting members , and N deformable members , each of M connecting members has a first end connected to the first wiring board , and a second end connected to the photosensitive structure ; wherein the N deformable members are all located between the first wiring board and the photosensitive structure ; the lens mount being characterized in that the driving structure is configured to drive the photosensitive structure to move a second displacement through at least one of said N deformable members being energized to generate heat for thermal deformation of said at least one of said N deformable members, the photosensitive structure moves a first displacement due to shaking in a direction perpendicular to a direction of an optical axis of the lens , a direction of the second displacement being in a same plane as and opposite to the direction of the first displacement, where N is a positive integer. wherein the driving structure comprises a first wiring board , M connecting members , and N deformable members , each of M connecting members has a first end connected to the first wiring board , and a second end connected to the photosensitive structure ; wherein the N deformable members are all located between the first wiring board and the photosensitive structure ; the lens mount being characterized in that the driving structure is configured to drive the photosensitive structure to move a second displacement through at least one of said N deformable members being energized to generate heat for thermal deformation of said at least one of said N deformable members, the photosensitive structure moves a first displacement due to shaking in a direction perpendicular to a direction of an optical axis of the lens , a direction of the second displacement being in a same plane as and opposite to the direction of the first displacement, where N is a positive integer.
An impingement cooling mechanism that ejects a cooling gas toward a cooling target from a plurality of impingement holes formed in an opposing member that is arranged opposite the cooling target , wherein turbulent flow promoting portions are provided in the flow path of a crossflow (CF), which is a flow that is formed by the cooling gas (G) after being ejected from the impingement holes , the turbulent flow promoting portions are constituted so that a turbulent flow is promoted from the upstream side to the downstream side of the crossflow (CF), characterized in that the number of the turbulent flow promoting portions on the upstream side of the crossflow (CF) is less than the number of the turbulent flow promoting portions on the downstream side of the crossflow (CF).
An underdrain apparatus , comprising: an upper structure for filtering particulates from a fluid, the upper structure including a support member upon which a filtration member is supported; and a bottom plate connected to the upper structure , the bottom plate including an opening for draining fluid into a trench , characterized in that the underdrain apparatus further comprises: a flow control vane positioned between the support member and the bottom plate , wherein the flow control vane extends at least partially within the underdrain and is configured to control the distribution of fluid flow within the underdrain, and a top cap is positioned within the opening , the top cap including at least one opening through at least one side wall of the top cap for restricting fluid flow, wherein a flow control vane is positioned within the top cap . an upper structure for filtering particulates from a fluid, the upper structure including a support member upon which a filtration member is supported; and a bottom plate connected to the upper structure , the bottom plate including an opening for draining fluid into a trench , characterized in that the underdrain apparatus further comprises: a flow control vane positioned between the support member and the bottom plate , wherein the flow control vane extends at least partially within the underdrain and is configured to control the distribution of fluid flow within the underdrain, and a top cap is positioned within the opening , the top cap including at least one opening through at least one side wall of the top cap for restricting fluid flow, wherein a flow control vane is positioned within the top cap . a flow control vane positioned between the support member and the bottom plate , wherein the flow control vane extends at least partially within the underdrain and is configured to control the distribution of fluid flow within the underdrain, and a top cap is positioned within the opening , the top cap including at least one opening through at least one side wall of the top cap for restricting fluid flow, wherein a flow control vane is positioned within the top cap .
A dough dividing system comprising: a hopper for receiving dough, the hopper including a hopper inlet and a hopper outlet ; and a divider assembly including: a divider block having a divider block cavity ; and a first actuator operable to move the divider block between a first position in which the divider block cavity is positioned under the hopper outlet , and a second position in the divider block cavity is positioned over a receptacle inlet , wherein dough enters the divider block cavity when the divider block cavity is in the first position and the dough is sheared as the divider block moves to the second position, characterized in that the divider block further has a divider bottom plate , wherein a weep hole is formed as a through-hole in the divider bottom plate for venting the divider block cavity to the atmosphere when the divider block is in the first position. a hopper for receiving dough, the hopper including a hopper inlet and a hopper outlet ; and a divider assembly including: a divider block having a divider block cavity ; and a first actuator operable to move the divider block between a first position in which the divider block cavity is positioned under the hopper outlet , and a second position in the divider block cavity is positioned over a receptacle inlet , wherein dough enters the divider block cavity when the divider block cavity is in the first position and the dough is sheared as the divider block moves to the second position, characterized in that the divider block further has a divider bottom plate , wherein a weep hole is formed as a through-hole in the divider bottom plate for venting the divider block cavity to the atmosphere when the divider block is in the first position. a divider block having a divider block cavity ; and a first actuator operable to move the divider block between a first position in which the divider block cavity is positioned under the hopper outlet , and a second position in the divider block cavity is positioned over a receptacle inlet , wherein dough enters the divider block cavity when the divider block cavity is in the first position and the dough is sheared as the divider block moves to the second position, characterized in that the divider block further has a divider bottom plate , wherein a weep hole is formed as a through-hole in the divider bottom plate for venting the divider block cavity to the atmosphere when the divider block is in the first position.
Linear drive comprising: a) a rotatably driven threaded spindle ; b) a non-rotatably guided spindle nut which can be moved in a longitudinal direction by the threaded spindle ; c) a longitudinally extending profile ; d) at least one support element (10-14; 10'-14') for supporting the threaded spindle against movement perpendicular to the longitudinal direction, the at least one support element (10 14; 10-14') having a receptacle which engages in a U-shape around a rail fixed to the profile , characterized in that the at least one support element (10-14; 10'-14') has a clamping mechanism by means of which the support element (10-14; 10'-14') can be fixed in a force-locking manner, and the clamping mechanism is unlocked during coupling of two adjacent support elements (10-14; 10'-14') or with the spindle nut , and the clamping mechanism is activated during the release of the coupling of the support element (10-14; 10'-14') from the adjacent support element (10-14; 10'-14') or the spindle nut . a) a rotatably driven threaded spindle ; b) a non-rotatably guided spindle nut which can be moved in a longitudinal direction by the threaded spindle ; c) a longitudinally extending profile ; d) at least one support element (10-14; 10'-14') for supporting the threaded spindle against movement perpendicular to the longitudinal direction, the at least one support element (10 14; 10-14') having a receptacle which engages in a U-shape around a rail fixed to the profile ,
An optical device , comprising: a first substrate defining: a surface; and a trench forming a depression along a portion of the surface; a second substrate coupled with the surface and extending from the surface to form a raised portion around the trench ; a laser die positioned within the trench , such that the laser die is surrounded by the second substrate ; an optical material positioned within a region between the laser die , the first substrate , and the second substrate ; and a third substrate coupled with the second substrate such that the second substrate is positioned between the first substrate and the third substrate ; wherein: the second substrate is configured to at least partially isolate the laser die from mechanical stress exerted on the optical device . a first substrate defining: a surface; and a trench forming a depression along a portion of the surface; a surface; and a trench forming a depression along a portion of the surface; a second substrate coupled with the surface and extending from the surface to form a raised portion around the trench ; a laser die positioned within the trench , such that the laser die is surrounded by the second substrate ; an optical material positioned within a region between the laser die , the first substrate , and the second substrate ; and a third substrate coupled with the second substrate such that the second substrate is positioned between the first substrate and the third substrate ; wherein: the second substrate is configured to at least partially isolate the laser die from mechanical stress exerted on the optical device .
A method comprising: receiving , by a first radio-frequency identification, RFID, tag of a second RFID reader , a first interrogation command from a first RFID reader ; transmitting , by the first RFID tag of the second RFID reader , a first response signal to the first RFID reader in response to receiving the first interrogation command; and transmitting , by a processor of the second RFID reader , a second interrogation command to one or more second RFID tags , characterized in that transmitting the second interrogation command is concurrent to receiving the first interrogation command or transmitting the first response signal. receiving , by a first radio-frequency identification, RFID, tag of a second RFID reader , a first interrogation command from a first RFID reader ; transmitting , by the first RFID tag of the second RFID reader , a first response signal to the first RFID reader in response to receiving the first interrogation command; and transmitting , by a processor of the second RFID reader , a second interrogation command to one or more second RFID tags , characterized in that transmitting the second interrogation command is concurrent to receiving the first interrogation command or transmitting the first response signal.
A wireless communications system configured to use a predetermined bandwidth of an Unlicensed bandwidth, the wireless communications system comprising: a base station configured to transmit a control signal that includes information indicating an offset value from a reference timing to a transmission start timing or a carrier sensing start timing ; and a terminal configured to: receive the control signal; determine, according to the offset value, the transmission start timing at which the terminal is to start transmitting a signal, or the carrier sensing start timing ; perform a process of detecting a wireless signal of the predetermined bandwidth in a predetermined period from the carrier sensing start timing to the transmission start timing ; and transmit the signal at the transmission start timing , when no wireless signal of the predetermined bandwidth is detected in the predetermined period . a base station configured to transmit a control signal that includes information indicating an offset value from a reference timing to a transmission start timing or a carrier sensing start timing ; and a terminal configured to: receive the control signal; determine, according to the offset value, the transmission start timing at which the terminal is to start transmitting a signal, or the carrier sensing start timing ; perform a process of detecting a wireless signal of the predetermined bandwidth in a predetermined period from the carrier sensing start timing to the transmission start timing ; and transmit the signal at the transmission start timing , when no wireless signal of the predetermined bandwidth is detected in the predetermined period . receive the control signal; determine, according to the offset value, the transmission start timing at which the terminal is to start transmitting a signal, or the carrier sensing start timing ; perform a process of detecting a wireless signal of the predetermined bandwidth in a predetermined period from the carrier sensing start timing to the transmission start timing ; and transmit the signal at the transmission start timing , when no wireless signal of the predetermined bandwidth is detected in the predetermined period .
A method for improving reliability of a broadcast channel, NPBCH, reception in narrowband internet-of-things, NB-IoT, devices UE during a cell acquisition phase, wherein the UE receives one group of 64 encoded NPBCH subframes in order to attach itself to the cell, wherein the one group of 64 NPBCH subframes comprises a master information block, MIB, comprising cell configuration and cell time information and which has a standardized form of 34 bits (b 0 ...b 33 ) length and four most significant bits of a system frame number, and wherein the four most significant bits of the system frame number are incremented every 64 NPBCH subframes while the rest of the MIB remains unchanged, the method is characterized in that the UE receives, descrambles and de-rate-matches at least a first and a second group of 64 NPBCH subframes, wherein using the four most significant bits (b 0 ...b 3 ) of the system frame number as a counter, wherein whenever the counter gets incremented from an even to an odd number, only the lowest significant bit of the counter b 3 changes from 0 to 1, resulting in only one bit toggle and using a modifier sequence {m}, which is calculated in advance by using the one bit toggle in the SFN bits, which is applied to the first group of 64 NPBCH subframes, before combining the both groups, decoding and extracting the MIB from the combined NPBCH subframes by only linear operations and wherein the UE attaches to the cell if a match is found.
A genetically modified mouse comprising in its genome: a nucleic acid encoding human M-CSF replacing the nucleic acid encoding mouse M-CSF and operably linked to the mouse M-CSF promoter and regulatory elements, a nucleic acid encoding human IL-3 replacing the nucleic acid encoding mouse IL-3 and operably linked to the mouse IL-3 promoter and regulatory elements, a nucleic acid encoding human GM-CSF replacing the nucleic acid encoding the mouse GM-CSF and operably linked to the mouse GM-CSF promoter and regulatory elements, a nucleic acid encoding human SIRPA operably linked to a human SIRPA promoter and human SIRPA regulatory sequence, and a nucleic acid encoding human TPO replacing the nucleic acid encoding the mouse TPO and operably linked to the mouse TPO promoter and regulatory elements, wherein the mouse expresses human M-CSF polypeptide, human IL-3 polypeptide, human GM-CSF polypeptide, human SIRPA polypeptide and human TPO polypeptide, and wherein the mouse comprises a recombination activating gene 2 (Rag2) gene knock-out and an IL2 receptor gamma chain (IL2rg) gene knock-out.
A neural network processor circuit for performing neural network calculations for an artificial neural network having one or more network layers, wherein the neural network processor circuit comprises: a data plane including a plurality of compute resources and a plurality of assignable physical memory resources operative to perform basic neural network computations thereby implementing a plurality of neurons in the artificial neural network ; a control plane separate from said data plane and configured to be dynamically mapped to sets of compute resources in accordance with a number of computations required in said one or more network layers, said control plane operative to generate control signaling for said data plane; wherein said compute resources and said memory resources are aggregated in multiple levels to form a hierarchy; and wherein higher levels in said hierarchy are more complex and include a smaller number of instantiations than lower levels. a data plane including a plurality of compute resources and a plurality of assignable physical memory resources operative to perform basic neural network computations thereby implementing a plurality of neurons in the artificial neural network ; a control plane separate from said data plane and configured to be dynamically mapped to sets of compute resources in accordance with a number of computations required in said one or more network layers, said control plane operative to generate control signaling for said data plane; wherein said compute resources and said memory resources are aggregated in multiple levels to form a hierarchy; and wherein higher levels in said hierarchy are more complex and include a smaller number of instantiations than lower levels.