mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a cold air generator configured to generate cold air; a storage chamber configured to receive the cold air generated by the cold air generator, and store at least one food and ice stuffs, the storage chamber comprising a top wall or ceiling surface and a bottom wall or bottom surface; a storage chamber door rotatably mounted to the storage chamber to open and close the storage chamber ; and a moving member configured to be moved in forward and backward directions in response to opening and closing of the door , the moving member including an inner frame configured to be slidably moved in forward and backward directions and a moving structure configured to be moved together with the inner frame , characterized in that the inner frame comprises: a top surface positioned at an upper side from a center of the refrigerator and slidably connected to a top wall surface of the storage chamber ; and a bottom surface positioned at lower side from the center of the refrigerator and slidably connected to a bottom wall surface of the storage chamber , and a top sliding unit, comprising a top slider and a top frame and slidably connected to a ceiling surface of the storage chamber ; and a bottom sliding unit, comprising a bottom slider and a bottom frame and slidably connected to a bottom surface of the storage chamber . a cold air generator configured to generate cold air; a storage chamber configured to receive the cold air generated by the cold air generator, and store at least one food and ice stuffs, the storage chamber comprising a top wall or ceiling surface and a bottom wall or bottom surface; a storage chamber door rotatably mounted to the storage chamber to open and close the storage chamber ; and a moving member configured to be moved in forward and backward directions in response to opening and closing of the door , the moving member including an inner frame configured to be slidably moved in forward and backward directions and a moving structure configured to be moved together with the inner frame , characterized in that the inner frame comprises: a top surface positioned at an upper side from a center of the refrigerator and slidably connected to a top wall surface of the storage chamber ; and a bottom surface positioned at lower side from the center of the refrigerator and slidably connected to a bottom wall surface of the storage chamber , and a top surface positioned at an upper side from a center of the refrigerator and slidably connected to a top wall surface of the storage chamber ; and a bottom surface positioned at lower side from the center of the refrigerator and slidably connected to a bottom wall surface of the storage chamber , and a top sliding unit, comprising a top slider and a top frame and slidably connected to a ceiling surface of the storage chamber ; and a bottom sliding unit, comprising a bottom slider and a bottom frame and slidably connected to a bottom surface of the storage chamber .
A deck framing system , comprising: a ledger having an s-shape in profile and comprising a joist support wall , a web wall extending perpendicularly from the joist support wall and an overhang wall extending perpendicularly from the web wall and disposed parallel to the joist support wall ; a plurality of joist support brackets each configured to be coupled to the web wall of the ledger and comprising at least one ledger attachment wing configured to engage the web wall of the ledger , and a joist support portion ; and a plurality of joists each having a hollow box-shape and configured to receive the joist support portion of one of the joist support brackets . a ledger having an s-shape in profile and comprising a joist support wall , a web wall extending perpendicularly from the joist support wall and an overhang wall extending perpendicularly from the web wall and disposed parallel to the joist support wall ; a plurality of joist support brackets each configured to be coupled to the web wall of the ledger and comprising at least one ledger attachment wing configured to engage the web wall of the ledger , and a joist support portion ; and a plurality of joists each having a hollow box-shape and configured to receive the joist support portion of one of the joist support brackets .
A resin composition for encapsulating a power semiconductor element formed from SiC, GaN, Ga 2 O 3 , or diamond, the resin composition for encapsulation comprising: a thermosetting resin (A); and silica (B), wherein the silica (B) includes Fe, the content of Fe is equal to or less than 220 ppm with respect to the total amount of the silica (B), and the resin composition is in a granular form, a tablet form, or a sheet form, wherein the silica (B) further includes Mn, and the sum value of the contents of Fe and Mn is equal to or less than 220 ppm with respect to the total amount of silica (B), wherein the silica (B) further includes Ni and Ti, and the sum value of the contents of Fe, Mn, Ni, and Ti is equal to or less than 250 ppm with respect to the total amount of silica (B), and wherein the proportion of the content of Fe with respect to the sum value of the contents of Fe, Mn, Ni, and Ti is equal to or less than 86.0%. a thermosetting resin (A); and silica (B), wherein the silica (B) includes Fe, the content of Fe is equal to or less than 220 ppm with respect to the total amount of the silica (B), and the resin composition is in a granular form, a tablet form, or a sheet form, wherein the silica (B) further includes Mn, and the sum value of the contents of Fe and Mn is equal to or less than 220 ppm with respect to the total amount of silica (B), wherein the silica (B) further includes Ni and Ti, and the sum value of the contents of Fe, Mn, Ni, and Ti is equal to or less than 250 ppm with respect to the total amount of silica (B), and wherein the proportion of the content of Fe with respect to the sum value of the contents of Fe, Mn, Ni, and Ti is equal to or less than 86.0%.
Method for classifying an object , located in a surrounding area of a motor vehicle , by means of a sensor device of the motor vehicle , wherein respective distance values (R1, R2, R3) relating to the distance from the object to be classified are sensed by the sensor device from at least two different sensor positions (P1, P2, P3), and the classification is carried out in accordance with the at least two distance values (R1, R2, R3) to the effect that a differentiation is made for the object at least between a punctiform object and an extended object , wherein the at least two sensor positions (P1, P2, P3) assume different positions from one another and are of the same distance sensor of the sensor device , wherein the at least two distance values (R1, R2, R3) are sensed by the distance sensor at different times during a movement of the motor vehicle , wherein the sensor device checks whether a predetermined criterion is satisfied with respect to the at least two distance values (R1, R2, R3), and the at least two distance values (R1, R2, R3) are evaluated only on condition that the predetermined criterion for classifying the object is satisfied, characterized in that during the checking as to whether the predetermined criterion is satisfied, in addition to the at least two distance values (R1, R2, R3) at least the following parameter is taken into account: - a distance (d) between the at least two sensor positions (P1, P2, P3) on the basis of a distance which is travelled by the motor vehicle between the times of sensing of the distance values (R1, R2, R3), and in that the predefined criterion comprises the following condition: R S − R B + d > r S + r B , where R S denotes the smaller of the distance values, R B denotes the larger of the distance values, d denotes the distance between the sensor positions, r S denotes the measuring error of the smaller distance value and r B denotes the measuring error of the larger distance value. - a distance (d) between the at least two sensor positions (P1, P2, P3) on the basis of a distance which is travelled by the motor vehicle between the times of sensing of the distance values (R1, R2, R3),
An automated wheeled delivery cart configured to interface with a stencil printer to automate a changeover process for the stencil printer, comprising: a housing configured to support replacement; a robotic arm configured to remove and replace an item in a stencil printer; and a controller configured to control the automated wheeled delivery cart to automatically move one or more replacement items from an item stocking location to the stencil printer, wherein the housing is configured with an interface, which is configured to register with the stencil printer and configured to dock within a docking station provided on the stencil printer, wherein the delivery cart is configured to be automatically moved, either by the controller or by a remote control or an automated control associated with the stencil printer, a production line, and/or a dedicated control, and; wherein the robotic arm includes a gripping device mounted at an end of the robotic arm and a camera mounted at the end of the robotic arm adjacent to or on the gripping device, the camera being configured to inspect items retrieved from the delivery cart or items used on the stencil printer. a housing configured to support replacement; a robotic arm configured to remove and replace an item in a stencil printer; and a controller configured to control the automated wheeled delivery cart to automatically move one or more replacement items from an item stocking location to the stencil printer, wherein the housing is configured with an interface, which is configured to register with the stencil printer and configured to dock within a docking station provided on the stencil printer, wherein the delivery cart is configured to be automatically moved, either by the controller or by a remote control or an automated control associated with the stencil printer, a production line, and/or a dedicated control, and; wherein the robotic arm includes a gripping device mounted at an end of the robotic arm and a camera mounted at the end of the robotic arm adjacent to or on the gripping device, the camera being configured to inspect items retrieved from the delivery cart or items used on the stencil printer.
A method comprising: receiving, by a computing device, one or more first packets initiating a first encrypted communication flow; adding, by the computing device and based on determining that the one or more first packets satisfy domain name criteria, first identification data corresponding to the first encrypted communication flow to a first list indicating packet flows to be decrypted and processed using intermediating logic; receiving, by the computing device, one or more second packets; based on determining that the one or more second packets are part of the first encrypted communication flow initiated by the one or more first packets, and based on determining that the first encrypted communication flow corresponds to the first identification data added to the first list, decrypting the one or more second packets; applying the intermediating logic by processing plaintext of the decrypted one or more second packets and performing a corresponding action associated with the first encrypted communication flow on the decrypted one or more second packets; re-encrypting, after performing the corresponding action, at least one of the decrypted one or more second packets; and transmitting the re-encrypted at least one of the one or more second packets to its intended destination. receiving, by a computing device, one or more first packets initiating a first encrypted communication flow; adding, by the computing device and based on determining that the one or more first packets satisfy domain name criteria, first identification data corresponding to the first encrypted communication flow to a first list indicating packet flows to be decrypted and processed using intermediating logic; receiving, by the computing device, one or more second packets; based on determining that the one or more second packets are part of the first encrypted communication flow initiated by the one or more first packets, and based on determining that the first encrypted communication flow corresponds to the first identification data added to the first list, decrypting the one or more second packets; applying the intermediating logic by processing plaintext of the decrypted one or more second packets and performing a corresponding action associated with the first encrypted communication flow on the decrypted one or more second packets; re-encrypting, after performing the corresponding action, at least one of the decrypted one or more second packets; and transmitting the re-encrypted at least one of the one or more second packets to its intended destination.
An audio speaker device comprising a bracket assembly for connecting a housing to a support structure , the bracket assembly comprising an outer bracket , and an inner bracket that secures the outer bracket to the support structure , the outer bracket including an outer endwall having an inward facing surface , an outward facing surface , and a connector that protrudes from the outward facing surface , an outer sidewall that surrounds the outer endwall and protrudes from a peripheral edge of the outer endwall in a direction normal to the outer endwall inward facing surface , the outer sidewall including a tab that protrudes from an inward facing surface of the outer sidewall , the inner bracket including an inner endwall having an inward facing surface and an outward facing surface , an inner sidewall that surrounds the inner endwall and protrudes from a peripheral edge of the inner endwall in a direction normal to the inner endwall inward facing surface , the inner sidewall including a groove formed in an outward facing surface of the inner sidewall , the groove having non-uniform groove width, wherein the inner bracket is disposed within the outer bracket such that the inward facing surface of the outer sidewall faces the outward facing surface of the inner sidewall , the tab is disposed in, and engaged with, the groove , and the inner sidewall is disposed between the outer endwall and the inner endwall , characterized in that an outer endwall ramp is provided on the inward facing surface of the outer endwall and includes a first inclined surface, an inner endwall ramp is provided on the inward facing surface of the outer endwall and includes a second inclined surface, and the first inclined surface and the second inclined surface are engaged in such a way that the tab is urged against a surface of the groove .
An apparatus comprising circuitry configured to: determine a location of a user , based on sound data representing speech of the user ; identify the user based on the determined location of the user and user identification information and location information received from a mobile device ; and associate at least one user identification with the determined location of the user , based on the sound data, and wherein the user is identified by comparing the at least one user identification and the determined location of the user with the user identification information and the location information received from the mobile device . determine a location of a user , based on sound data representing speech of the user ; identify the user based on the determined location of the user and user identification information and location information received from a mobile device ; and associate at least one user identification with the determined location of the user , based on the sound data, and wherein the user is identified by comparing the at least one user identification and the determined location of the user with the user identification information and the location information received from the mobile device .
A dry powder inhaler comprising: at least one air inlet at a distal end zone of said inhaler , at least one air outlet at a proximal end zone of said inhaler , and an air channel between said at least one air inlet and said at least one air outlet ; at least one medicament reservoir ; a dosage mechanism for arranging at least one dose of a medicament from said at least one medicament reservoir between the air channel and the air outlet such that said at least one dose may be delivered upon inhalation at said air outlet , wherein the dosage mechanism comprises a dose disc with at least one cavity , wherein the dose disc may be rotated between a dose collecting position wherein the cavity is positioned in the medicament reservoir , and a dose administering position wherein the cavity is in communication with said air channel ; a turbulence enhancing protrusion disposed suspended into said air channel , characterized in that said turbulence enhancing protrusion has a leading edge and a trailing edge in respect of a fluid flow (A) in the air channel from the at least one air inlet to the at least one air outlet , wherein in said dose administrating position, said cavity is extending downstream said trailing edge . at least one air inlet at a distal end zone of said inhaler , at least one air outlet at a proximal end zone of said inhaler , and an air channel between said at least one air inlet and said at least one air outlet ; at least one medicament reservoir ; a dosage mechanism for arranging at least one dose of a medicament from said at least one medicament reservoir between the air channel and the air outlet such that said at least one dose may be delivered upon inhalation at said air outlet , wherein the dosage mechanism comprises a dose disc with at least one cavity , wherein the dose disc may be rotated between a dose collecting position wherein the cavity is positioned in the medicament reservoir , and a dose administering position wherein the cavity is in communication with said air channel ; a turbulence enhancing protrusion disposed suspended into said air channel , characterized in that said turbulence enhancing protrusion has a leading edge and a trailing edge in respect of a fluid flow (A) in the air channel from the at least one air inlet to the at least one air outlet , wherein in said dose administrating position, said cavity is extending downstream said trailing edge .
A user equipment, UE, comprising: memory to store a measurement object, MO, having an associated synchronization-signal block based measurement timing configuration, SMTC, that defines an SMTC occasion, wherein the MO is within a group of MOs that are associated with SMTCs, wherein the group has fully overlapped SMTC occasions; processing circuitry, coupled with the memory, to: determine an inter-frequency cell identification requirement for the group, wherein the inter-frequency cell identification requirement includes a time period within which the UE is expected to identify a detectable inter-frequency cell, and wherein the requirement is based on whether or not the inter-frequency cell is known; and perform one or more measurements based on the MO to determine whether a cell is detected within the inter-frequency cell identification requirement. memory to store a measurement object, MO, having an associated synchronization-signal block based measurement timing configuration, SMTC, that defines an SMTC occasion, wherein the MO is within a group of MOs that are associated with SMTCs, wherein the group has fully overlapped SMTC occasions; processing circuitry, coupled with the memory, to: determine an inter-frequency cell identification requirement for the group, wherein the inter-frequency cell identification requirement includes a time period within which the UE is expected to identify a detectable inter-frequency cell, and wherein the requirement is based on whether or not the inter-frequency cell is known; and perform one or more measurements based on the MO to determine whether a cell is detected within the inter-frequency cell identification requirement. determine an inter-frequency cell identification requirement for the group, wherein the inter-frequency cell identification requirement includes a time period within which the UE is expected to identify a detectable inter-frequency cell, and wherein the requirement is based on whether or not the inter-frequency cell is known; and perform one or more measurements based on the MO to determine whether a cell is detected within the inter-frequency cell identification requirement.
A computer-implemented method of training a machine learning model to learn ligand binding similarities between protein binding sites for use in drug discovery, the method comprising: inputting to the machine learning model: a representation of a first binding site; a representation of a second binding site, wherein the representations of the first and second binding sites comprise structural information, wherein the structural information relates to three-dimensional structure of the binding sites and the structural information comprises volumetric information, wherein the representations of the first and second binding sites each comprise an encoded three-dimensional grid of voxels, each voxel being associated with an occupancy value indicating whether an atom is present; and a label comprising an indication of ligand binding similarity between the first binding site and the second binding site; outputting from the machine learning model a similarity indicator based on the representations of the first and second binding sites; performing a comparison between the similarity indicator and the label; and updating the machine learning model based on the comparison. inputting to the machine learning model: a representation of a first binding site; a representation of a second binding site, wherein the representations of the first and second binding sites comprise structural information, a representation of a first binding site; a representation of a second binding site, wherein the representations of the first and second binding sites comprise structural information, wherein the structural information relates to three-dimensional structure of the binding sites and the structural information comprises volumetric information, wherein the representations of the first and second binding sites each comprise an encoded three-dimensional grid of voxels, each voxel being associated with an occupancy value indicating whether an atom is present; and a label comprising an indication of ligand binding similarity between the first binding site and the second binding site; outputting from the machine learning model a similarity indicator based on the representations of the first and second binding sites; performing a comparison between the similarity indicator and the label; and updating the machine learning model based on the comparison.