mhurhangee/ep-ind-claims huggingface dataset:
A dialysate solution container (100, 100A) comprising: a flexible first bag body (10, 10A) having a first interior, a first powdered pharmaceutical agent, and a flexible second bag body having a second interior, wherein the second bag body has the first powdered pharmaceutical agent sealed therein; the second bag body comprising: a mixing region at a lower end portion of the second interior, wherein in the mixing region the first powdered pharmaceutical agent can be mixed with water; and a communication pipe by means of which the exterior of the second bag body is in communication with the second interior and wherein a first end of the communication pipe is connectable to a dialysis circuit, and a second end of the communication pipe is disposed in the mixing region; characterized in that the second bag body comprises a first filter through which the second interior is in communication with the first interior of the first bag body (10, 10A). a flexible first bag body (10, 10A) having a first interior, a first powdered pharmaceutical agent, and a flexible second bag body having a second interior, wherein the second bag body has the first powdered pharmaceutical agent sealed therein; the second bag body comprising: a mixing region at a lower end portion of the second interior, wherein in the mixing region the first powdered pharmaceutical agent can be mixed with water; and a communication pipe by means of which the exterior of the second bag body is in communication with the second interior and wherein a first end of the communication pipe is connectable to a dialysis circuit, and a second end of the communication pipe is disposed in the mixing region; characterized in that the second bag body comprises a first filter through which the second interior is in communication with the first interior of the first bag body (10, 10A). a mixing region at a lower end portion of the second interior, wherein in the mixing region the first powdered pharmaceutical agent can be mixed with water; and a communication pipe by means of which the exterior of the second bag body is in communication with the second interior and wherein a first end of the communication pipe is connectable to a dialysis circuit, and a second end of the communication pipe is disposed in the mixing region; characterized in that the second bag body comprises a first filter through which the second interior is in communication with the first interior of the first bag body (10, 10A).
A load port module comprising: a base support; a frame adapted for connecting the load port module to a substrate processing apparatus, the frame having a transport opening throngh which substrates are transported between at least one substrate holding cassette disposed on the base support and processing apparatus where the base support is connected to the frame for holding the at least one substrate holding cassette, the frame being configured so that it is mounted and. removed from the substrate processing apparatus as a unit and characterized in that the load port module further comprises a user interface including a display and a user interface input device (304, 306) for inputting information, the user interface being mounted within an opening formed in the frame so that the user interface is integral within the frame. a base support; a frame adapted for connecting the load port module to a substrate processing apparatus, the frame having a transport opening throngh which substrates are transported between at least one substrate holding cassette disposed on the base support and processing apparatus where the base support is connected to the frame for holding the at least one substrate holding cassette, the frame being configured so that it is mounted and. removed from the substrate processing apparatus as a unit and characterized in that the load port module further comprises a user interface including a display and a user interface input device (304, 306) for inputting information, the user interface being mounted within an opening formed in the frame so that the user interface is integral within the frame.
A method for operating an electronic device, the method comprising: executing, by at least one processor of the electronic device, an application program to interface with a framework interface; routing, by the framework interface, data between the application program and one or more communication modules, wherein each of the one or more communication modules is configured to operate according to a selected one or more communication protocols, wherein the framework interface is configured to select at least one of the one or more communication modules for at least part of the data; and communicating, by the one or more communication modules, the data with one or more external electronic devices, wherein the communicating of the data with the one or more external electronic devices comprises establishing, by the framework interface, one or more communication channels with the one or more external electronic devices, wherein the one or more communication channels include one or more logical channels, wherein the one or more logical channels are independent of the one or more communication protocols, and wherein each of the one or more logical channels is associated with a different session established at a session layer of the electronic device. executing, by at least one processor of the electronic device, an application program to interface with a framework interface; routing, by the framework interface, data between the application program and one or more communication modules, wherein each of the one or more communication modules is configured to operate according to a selected one or more communication protocols, wherein the framework interface is configured to select at least one of the one or more communication modules for at least part of the data; and communicating, by the one or more communication modules, the data with one or more external electronic devices, wherein the communicating of the data with the one or more external electronic devices comprises establishing, by the framework interface, one or more communication channels with the one or more external electronic devices, wherein the one or more communication channels include one or more logical channels, wherein the one or more logical channels are independent of the one or more communication protocols, and wherein each of the one or more logical channels is associated with a different session established at a session layer of the electronic device.
A side case device (900L,900R) that is attachable to a mobile object, comprising: a side case (10L,10R) that is configured to be attached to a side portion of the mobile object to be swingable leftwardly and rightwardly, is configured to be detached from the side portion of the mobile object and has a concave portion that opens forwardly; a shaft member configured to be fixable to the side portion of the mobile object to extend upwardly and downwardly; and a rotation member that is supported at the shaft member to be rotatable about the shaft member and has an insertion portion to be inserted into the concave portion of the side case (10L,10R), wherein with the insertion portion inserted into the concave portion, a cross section, which is orthogonal to an axial center of the shaft member, of the concave portion and the insertion portion is defined, an opening end of the concave portion in the cross section is defined as a first position, and a second position and a third position that are closer to a bottom portion of the concave portion than the first position are defined in this order, characterized in that the side case device (900L,900R) further comprises a damper provided between the shaft member and the rotation member, wherein the concave portion and the insertion portion are formed such that a size of a clearance between the concave portion and the insertion portion in the cross section gradually decreases from the first position to the second position and gradually increases from the second position to the third position. a side case (10L,10R) that is configured to be attached to a side portion of the mobile object to be swingable leftwardly and rightwardly, is configured to be detached from the side portion of the mobile object and has a concave portion that opens forwardly; a shaft member configured to be fixable to the side portion of the mobile object to extend upwardly and downwardly; and a rotation member that is supported at the shaft member to be rotatable about the shaft member and has an insertion portion to be inserted into the concave portion of the side case (10L,10R), wherein with the insertion portion inserted into the concave portion, a cross section, which is orthogonal to an axial center of the shaft member, of the concave portion and the insertion portion is defined, an opening end of the concave portion in the cross section is defined as a first position, and a second position and a third position that are closer to a bottom portion of the concave portion than the first position are defined in this order, characterized in that the side case device (900L,900R) further comprises a damper provided between the shaft member and the rotation member, wherein the concave portion and the insertion portion are formed such that a size of a clearance between the concave portion and the insertion portion in the cross section gradually decreases from the first position to the second position and gradually increases from the second position to the third position.
A power supply system for providing a regulated DC output from an AC input, comprising: a rectifier for converting said AC input into a rectified DC output, a DC to DC converter coupled to said rectifier for providing said regulated DC output, a first compensator circuit coupled to the output of said DC to DC converter, a second compensator circuit coupled to the output of the rectifier, said first and second compensator circuits (12, 14) each adapted to provide feedback control of said rectifier to prevent an over-voltage at the regulated DC output, wherein said second compensator circuit is adapted to limit the output of the rectifier if said first compensator circuit fails to do so. a rectifier for converting said AC input into a rectified DC output, a DC to DC converter coupled to said rectifier for providing said regulated DC output, a first compensator circuit coupled to the output of said DC to DC converter, a second compensator circuit coupled to the output of the rectifier, said first and second compensator circuits (12, 14) each adapted to provide feedback control of said rectifier to prevent an over-voltage at the regulated DC output, wherein said second compensator circuit is adapted to limit the output of the rectifier if said first compensator circuit fails to do so.
Motor-vehicle camera module comprising a camera housing, the camera housing having a main housing body (2.1), which forms a camera-accommodating space delimited by side surfaces and a covering element, and having a retaining ring (2.2), characterized in that the retaining ring (2.2) is formed on the side parts, in one piece with the main housing body (2.1), and comprises at least two segment-form shells (4a, 4b), formed by two half-shells (4a, 4b) or four quarter-shells, which are fastened on the main housing body (2.1) by means of a respective film hinge (5a, 5b).
An air mattress, comprising: a plurality of air cell groups lined up in a lengthwise direction of the air mattress, each of which groups is constituted by a plurality of bladder-shaped cells; an air supply/release pump; and an air tube connecting said bladder-shaped cells and said air supply/release pump in one or a plurality of independent first systems for each of the air cell groups out of said air cell groups and one or a plurality of independent second systems for each of specific bladder-shaped cells out of the plurality of air cell groups, characterized by a pressure sensor for measuring the pressure within said bladder-shaped cells for each of said first and second systems; and a controller for controlling air supply/release by the air supply/release pump with respect to said first systems and second systems; wherein: one or a plurality of specific air cell groups out of said plurality of air cell groups is respectively constituted by an upper section, a middle section, and a lower section of bladder-shaped cells (17a, 17b, 17c) lined up in the lengthwise direction of said air mattress; the pressure in said lower section bladder-shaped cells is controlled by said first system; the pressure in said middle section bladder-shaped cells is controlled by said second system; and said upper section bladder-shaped cells communicate with the middle section bladder-shaped cells therebeneath. a plurality of air cell groups lined up in a lengthwise direction of the air mattress, each of which groups is constituted by a plurality of bladder-shaped cells; an air supply/release pump; and an air tube connecting said bladder-shaped cells and said air supply/release pump in one or a plurality of independent first systems for each of the air cell groups out of said air cell groups and one or a plurality of independent second systems for each of specific bladder-shaped cells out of the plurality of air cell groups, one or a plurality of specific air cell groups out of said plurality of air cell groups is respectively constituted by an upper section, a middle section, and a lower section of bladder-shaped cells (17a, 17b, 17c) lined up in the lengthwise direction of said air mattress; the pressure in said lower section bladder-shaped cells is controlled by said first system; the pressure in said middle section bladder-shaped cells is controlled by said second system; and said upper section bladder-shaped cells communicate with the middle section bladder-shaped cells therebeneath.
A method for assigning control plane connectivity for a wireless device (150a, 150b) in a dual connectivity supported communications network (100a, 100b), wherein the communications network (100a, 100b) comprises a first network node supporting a group of low frequency bands (610a, 610b, 610c) and a second network node supporting a group of high frequency bands (620a, 620b, 620c), wherein frequency bands located lower than 1 GHz belong to the group of low frequency bands (610a, 610b, 610c), wherein frequency bands located at 4 GHz or higher belong to the group of high frequency bands (620a, 620b, 620c), and wherein frequency bands located from 1 GHz to 4 GHz either belong to the group of low frequency bands (610a, 610b, 610c) or to the group of high frequency bands (620a, 620b, 620c), the method being performed by a control node, the method comprising: acquiring an uplink load level for the group of low frequency bands (610a, 610b, 610c); acquiring a first pathloss level between the wireless device (150a, 150b) and the first network node and a second pathloss level between the wireless device (150a, 150b) and the second network node; and selecting, based on the acquired uplink load level, the first pathloss level, and the second pathloss level, which one of the first network node and the second network node to provide control plane connectivity for the wireless device (150a, 150b), characterized in that the first network node is selected to provide the control plane connectivity when the uplink load level for the group of low frequency bands (610a, 610b, 610c) is below a first predetermined level, and wherein which one of the first network node and the second network node to provide control plane connectivity is selected based on the first pathloss level and the second pathloss level when the uplink load level for the group of low frequency bands (610a, 610b, 610c) is above the first predetermined level. acquiring an uplink load level for the group of low frequency bands (610a, 610b, 610c); acquiring a first pathloss level between the wireless device (150a, 150b) and the first network node and a second pathloss level between the wireless device (150a, 150b) and the second network node; and selecting, based on the acquired uplink load level, the first pathloss level, and the second pathloss level, which one of the first network node and the second network node to provide control plane connectivity for the wireless device (150a, 150b), characterized in that the first network node is selected to provide the control plane connectivity when the uplink load level for the group of low frequency bands (610a, 610b, 610c) is below a first predetermined level, and wherein which one of the first network node and the second network node to provide control plane connectivity is selected based on the first pathloss level and the second pathloss level when the uplink load level for the group of low frequency bands (610a, 610b, 610c) is above the first predetermined level.
Device for processing containers, in particular plastic containers, comprising at least one container-processing apparatus, which has at least one changeover access entry, at which format parts and/or tools can be exchanged during changeover operation, and comprising a transport system, by means of which the format parts and/or tools can be brought to the at least one container-processing apparatus, wherein the transport system is a driverless transport system, by means of which the format parts and/or tools can be automatically brought to at least one container-processing apparatus, characterised in that at least one container-processing apparatus is assigned to a changing robot for replacing and/or exchanging the format parts and/or tools, wherein the driverless transport system and the changing robot are in communication connection to each other and the driverless transport system and the changing robot are contactable via a contact point. wherein the transport system is a driverless transport system, by means of which the format parts and/or tools can be automatically brought to at least one container-processing apparatus, characterised in that at least one container-processing apparatus is assigned to a changing robot for replacing and/or exchanging the format parts and/or tools, wherein the driverless transport system and the changing robot are in communication connection to each other and the driverless transport system and the changing robot are contactable via a contact point.
A filter device comprising a frame, rotatable lamella axes positioned at the frame at a distance from one another, filter lamellae positioned on the lamella axes next to one another at a distance in a line extending obliquely upwards in succession and arranged in such a manner that the filter lamellae on the adjacent lamella axes are arranged to overlap at least partly, whereby a liquid or material to be filtered is arranged to pass between the filter lamellae, and said filter device further comprising intermediate lamellae mounted between the adjacent filter lamellae on the same lamella axis to provide a distance between the adjacent filter lamellae and to clean the gap between the adjacent filter lamellae, characterized in that said filter device further comprising a rotatable auxiliary axis positioned obliquely in front of and below the last lamella axis having cleaning lamellae mounted on the auxiliary axis, said cleaning lamellae being arranged to extend to the gaps between the filter lamellae of the last lamella axis in the direction of motion of the material to be filtered.
A simulation apparatus, comprising: a type setting section for setting a type of mode of electric power consumption of equipment which is a plurality of pieces of equipment included in a system; and an output section for simulating amounts of the electric power consumption of the plurality of pieces of equipment in accordance with the type set by the type setting section and outputting the amounts of electric power consumption thus simulated, characterized in that the type set by the type setting section includes a first type which is a mode of electric power consumption in a piece of equipment that varies in electric power consumption between (i) a standby state in which it stands by due to a delay of processing of another piece of equipment and (ii) an operating state. a type setting section for setting a type of mode of electric power consumption of equipment which is a plurality of pieces of equipment included in a system; and an output section for simulating amounts of the electric power consumption of the plurality of pieces of equipment in accordance with the type set by the type setting section and outputting the amounts of electric power consumption thus simulated, characterized in that the type set by the type setting section includes a first type which is a mode of electric power consumption in a piece of equipment that varies in electric power consumption between (i) a standby state in which it stands by due to a delay of processing of another piece of equipment and (ii) an operating state.
A fronthaul multiplexer configured to combine uplink packets received from two or more radio units in a fronthaul network, the fronthaul multiplexer comprising: a packet reception unit configured to receive uplink packets from two or more radio units; a buffer unit which includes an internal memory and which is configured to sequentially store the received packets; a combining unit including an operation unit configured to combine the packets in a compressed state that is stored in the buffer unit and a combining control unit configured to instruct the operation unit to combine the packets when all packets to be combined are received and configured to output a combined result of the operation unit; and a packet output unit configured to output a combined uplink packet. a packet reception unit configured to receive uplink packets from two or more radio units; a buffer unit which includes an internal memory and which is configured to sequentially store the received packets; a combining unit including an operation unit configured to combine the packets in a compressed state that is stored in the buffer unit and a combining control unit configured to instruct the operation unit to combine the packets when all packets to be combined are received and configured to output a combined result of the operation unit; and a packet output unit configured to output a combined uplink packet.