mhurhangee/ep-ind-claims huggingface dataset:
A locking system, comprising: a safety lock; a lock housing (102, 502); a hard stop (504; 718; 908) configured to reside within the lock housing (102; 502), wherein the hard stop has an extended segment (108; 506; 610) that protrudes from a first surface of the lock housing, and the hard stop substantially spans from a first wall of the lock housing to a second wall of the lock housing, and wherein the second wall is opposite the first wall; and a receptacle (200; 716) comprising a first plate (204; 402; 606; 706; 804) having a window (206; 404; 808) configured to receive the extended segment (108; 506; 610), and a second plate (208; 408; 616; 714; 810) attached to and substantially perpendicular to the first plate (204; 402; 606; 706; 804), wherein the second plate (208; 408; 616; 714; 810) has a bolt receptacle hole (210; 406; 716; 812) configured to receive a locking bolt of the safety lock that advances from a second surface of the lock housing (102; 502) to facilitate locking between the lock housing and the receptacle, and wherein engagement of the extended segment (108; 506; 610) with the window (206; 404; 808) causes the bolt receptacle hole (210; 406; 606; 706; 804) to substantially align with the locking bolt. a safety lock; a lock housing (102, 502); a hard stop (504; 718; 908) configured to reside within the lock housing (102; 502), wherein the hard stop has an extended segment (108; 506; 610) that protrudes from a first surface of the lock housing, and the hard stop substantially spans from a first wall of the lock housing to a second wall of the lock housing, and wherein the second wall is opposite the first wall; and a receptacle (200; 716) comprising a first plate (204; 402; 606; 706; 804) having a window (206; 404; 808) configured to receive the extended segment (108; 506; 610), and a second plate (208; 408; 616; 714; 810) attached to and substantially perpendicular to the first plate (204; 402; 606; 706; 804), wherein the second plate (208; 408; 616; 714; 810) has a bolt receptacle hole (210; 406; 716; 812) configured to receive a locking bolt of the safety lock that advances from a second surface of the lock housing (102; 502) to facilitate locking between the lock housing and the receptacle, and wherein engagement of the extended segment (108; 506; 610) with the window (206; 404; 808) causes the bolt receptacle hole (210; 406; 606; 706; 804) to substantially align with the locking bolt.
A welding wire transfer system for use with at least a pair of endless welding wire containers (16; 18), at least one of said containers is an in-process supply container containing an in-process coil of wire (12 or 14) and at least one other of said containers is a staged supply container containing a staged coil of wire (14 or 12) with a start end of said staged coil of wire butt-welded to a tail end of said in-process coil of wire, said welding wire transfer system comprising: a vertical shaft; and a horizontal shaft extending normal to said vertical shaft and comprising a welding wire transfer guide, characterized in that said guide has an outwardly-facing curvilinear groove, one end of said curvilinear groove of said welding wire transfer guide positioned nearly tangent to an outer diameter of the in-process coil of wire and an opposed end of said curvilinear groove positioned nearly tangent to an inner diameter of the staged coil of wire, wherein the one end and the opposed end of the curvilinear groove are positioned nearly along a tangent line between the outer diameter of the in-process coil of wire and the inner diameter of the staged coil of wire. a vertical shaft; and a horizontal shaft extending normal to said vertical shaft and comprising a welding wire transfer guide, characterized in that said guide has an outwardly-facing curvilinear groove, one end of said curvilinear groove of said welding wire transfer guide positioned nearly tangent to an outer diameter of the in-process coil of wire and an opposed end of said curvilinear groove positioned nearly tangent to an inner diameter of the staged coil of wire, wherein the one end and the opposed end of the curvilinear groove are positioned nearly along a tangent line between the outer diameter of the in-process coil of wire and the inner diameter of the staged coil of wire.
A wound closure device comprising: a wound packer comprising a plurality of building blocks and/or building units wherein each of the building blocks and/or building units comprises at least one cell and including one or more building blocks each consisting of one cell; and wherein the building blocks and/or building units are configured to be reversibly adhered to or attached to each other to form an assembled structure having an adjustable size and/or shape for insertion into or placement over a wound.
A system for treatment of body tissue, comprising: an anchor assembly, the anchor assembly including an anchor component and a connector component; and a delivery device, the delivery device including a needle assembly, a retraction lever and a cartridge spool assembly, the cartridge spool assembly housing the anchor and connector components of the anchor assembly; wherein the cartridge spool assembly is arranged to feed one component of the anchor assembly within the needle assembly and the cartridge spool assembly is replaceable; characterized in that the delivery device further includes a needle spool assembly wherein the needle assembly is wound about the needle spool assembly and the needle spool assembly controls advancement or retraction of the needle assembly through an operative association with the retraction lever. an anchor assembly, the anchor assembly including an anchor component and a connector component; and a delivery device, the delivery device including a needle assembly, a retraction lever and a cartridge spool assembly, the cartridge spool assembly housing the anchor and connector components of the anchor assembly; wherein the cartridge spool assembly is arranged to feed one component of the anchor assembly within the needle assembly and the cartridge spool assembly is replaceable; characterized in that the delivery device further includes a needle spool assembly wherein the needle assembly is wound about the needle spool assembly and the needle spool assembly controls advancement or retraction of the needle assembly through an operative association with the retraction lever.
Lid stay, comprising the following: a base body, a setting arm which is fastened to the base body pivotally about a pivot axis between a closed position and an open position, wherein the setting arm has a base element and a lever, wherein the base element is fastened to the base body pivotally about the pivot axis, a drive applying force to the base element at least over part of the pivoting path of the setting arm between the closed position and the open position to take up the open position, and a latching mechanism with which the lever can be fixed non-rotatingly in at least one latching position on the base element, characterized in that the lever is always connected to the base element and is hinged to the base element, wherein the lever is freely pivotable relative to the base element about a third pivot axis in an unlatched state, and that the lid stay further comprises a bolt arranged on the lever, wherein the bolt is guided in an elongated hole on the base element, or that the lid stay further comprises a bolt arranged on the base element, wherein the bolt is guided in an elongated hole on the lever. a base body, a setting arm which is fastened to the base body pivotally about a pivot axis between a closed position and an open position, wherein the setting arm has a base element and a lever, wherein the base element is fastened to the base body pivotally about the pivot axis, a drive applying force to the base element at least over part of the pivoting path of the setting arm between the closed position and the open position to take up the open position, and a latching mechanism with which the lever can be fixed non-rotatingly in at least one latching position on the base element, characterized in that the lever is always connected to the base element and is hinged to the base element, wherein the lever is freely pivotable relative to the base element about a third pivot axis in an unlatched state, and that the lid stay further comprises a bolt arranged on the lever, wherein the bolt is guided in an elongated hole on the base element, or that the lid stay further comprises a bolt arranged on the base element, wherein the bolt is guided in an elongated hole on the lever.
A fire-resistant thermal and/or acoustic insulation product based on mineral wool, especially rock wool or glass wool, and on an organic binder which is the product resulting from the thermal crosslinking of a phenolic resin, a urea-formaldehyde resin, a poly(meth)acrylic acid resin, a polyurethane resin or an alkyd resin characterized in that it contains, as fire retardant, a polycarboxylic acid metal salt selected from dicarboxylic, tricarboxylic or tetracarboxylic nonpolymeric organic acids, said polycarboxylic acid metal salt is used in an amount of 5 to 50 parts per 100 parts by weight of resin, and 0.05 to 5% of the total weight of the insulation product.
A memory protection method, wherein the method comprises: receiving, a memory access request from an accelerator or an input/output I/O device, wherein the memory access request comprises an identifier of a data stream of the accelerator or the I/O device and a first physical address requested to be accessed; reading, based on the identifier of the data stream of the accelerator or the I/O device, permission information corresponding to a first physical page table in which the first physical address is located, wherein the permission information corresponding to the first physical page table indicates whether the data stream has a read permission and/or a write permission in the first physical page table; and performing a permission check on the memory access request based on the permission information corresponding to the first physical page table, and if the permission check succeeds, allowing the memory access request to access the first physical address. receiving, a memory access request from an accelerator or an input/output I/O device, wherein the memory access request comprises an identifier of a data stream of the accelerator or the I/O device and a first physical address requested to be accessed; reading, based on the identifier of the data stream of the accelerator or the I/O device, permission information corresponding to a first physical page table in which the first physical address is located, wherein the permission information corresponding to the first physical page table indicates whether the data stream has a read permission and/or a write permission in the first physical page table; and performing a permission check on the memory access request based on the permission information corresponding to the first physical page table, and if the permission check succeeds, allowing the memory access request to access the first physical address.
An intermediate temperature solid oxide fuel cell comprising an electrically conductive mechanically supporting metallic substrate comprising: (i) a fuel inlet and a fuel outlet; (ii) at least one porous region comprising a plurality of pores in said metallic substrate, where the porosity increases as a function of distance along an axis defined between said fuel inlet and said fuel outlet; and (ii) at least one non-porous region bounding the at least one porous region, and having mounted on said metallic substrate an anode of said intermediate temperature solid oxide fuel cell, characterised in that said pores have a fixed lateral dimension of from 10 to 200 μm and a lateral spacing varied along the axis defined between said fuel inlet and said fuel outlet in the range from 100 μm to 500 μm. (i) a fuel inlet and a fuel outlet; (ii) at least one porous region comprising a plurality of pores in said metallic substrate, where the porosity increases as a function of distance along an axis defined between said fuel inlet and said fuel outlet; and (ii) at least one non-porous region bounding the at least one porous region, and having mounted on said metallic substrate an anode of said intermediate temperature solid oxide fuel cell, characterised in that said pores have a fixed lateral dimension of from 10 to 200 μm and a lateral spacing varied along the axis defined between said fuel inlet and said fuel outlet in the range from 100 μm to 500 μm.
A distance-measurement apparatus comprising: generation means for generating a transmission pulse set composed of a plurality of transmission pulses of which a strength of an optical signal changes in a pulse-like manner, the generation means being configured so that a time difference between times at which the plurality of transmission pulses are transmitted respectively differs according to a transmitting order of the transmission pulse set, the plurality of transmission pulses constituting the transmission pulse set having frequency offsets different from each other with respect to a reference frequency; transmission means for repeatedly transmitting the generated transmission pulse set; reception means for receiving reflected pulses of the transmission pulses reflected on a distance-measurement-target object; specification means for specifying a time difference between times at which the plurality of reflected pulses having frequency offsets different from each other are received respectively; and distance calculation means for calculating a distance to the distance-measurement-target object based on receiving timings of the received reflected pulses and transmitting timings of the transmission pulses corresponding to the time difference specified for the reflected pulses. generation means for generating a transmission pulse set composed of a plurality of transmission pulses of which a strength of an optical signal changes in a pulse-like manner, the generation means being configured so that a time difference between times at which the plurality of transmission pulses are transmitted respectively differs according to a transmitting order of the transmission pulse set, the plurality of transmission pulses constituting the transmission pulse set having frequency offsets different from each other with respect to a reference frequency; transmission means for repeatedly transmitting the generated transmission pulse set; reception means for receiving reflected pulses of the transmission pulses reflected on a distance-measurement-target object; specification means for specifying a time difference between times at which the plurality of reflected pulses having frequency offsets different from each other are received respectively; and distance calculation means for calculating a distance to the distance-measurement-target object based on receiving timings of the received reflected pulses and transmitting timings of the transmission pulses corresponding to the time difference specified for the reflected pulses.
A coated dehydrated microorganism comprising a dehydrated microorganism surrounded by at least one coating, said coating comprising by dry weight at least 25% of hygroscopic salt(s), wherein the coating has a Moisture Uptake Rate of at least 20% w/w at 25°C and at 75% relative humidity after 7 days, and wherein the pH of the coating is compatible with viability of the coated dehydrated microorganism.
An information terminal configured to be used with a wrist information device comprising an operation receiver and having a clock function, the information terminal comprising: a position measurement module configured to obtain position information using a satellite positioning system; a communication circuit configured to be capable of communication with the wrist information device; a memory; and a processor, characterized in that the processor is configured to: obtain information about an operation of the clock function, wherein the clock function is a stopwatch function, input by a user into the wrist information device, from the wrist information device via the communication circuit, during establishment of connection of the communication, obtain the position information obtained using the satellite positioning system, from the position measurement module, and store, in the memory, the position information and the information about the operation of the stopwatch function in association with each other. a position measurement module configured to obtain position information using a satellite positioning system; a communication circuit configured to be capable of communication with the wrist information device; a memory; and a processor, obtain information about an operation of the clock function, wherein the clock function is a stopwatch function, input by a user into the wrist information device, from the wrist information device via the communication circuit, during establishment of connection of the communication, obtain the position information obtained using the satellite positioning system, from the position measurement module, and store, in the memory, the position information and the information about the operation of the stopwatch function in association with each other.
A light receiving element unit (1, 1A,101) comprising a first light receiving element (10,110) having a light receiving region (12,112) on a first main surface side of a first semiconductor substrate (11,111); a second light receiving element (20,120) having a light receiving region (22,122) on a second main surface side of the second semiconductor substrate (21,121); and a support substrate (2,102) having wirings (3a-3c,103a-103c) for electrically connecting the first light receiving element (10,110) and the second light receiving element (20,120) to an outside, characterized in that: one of the first light receiving element (10,110) and the second light receiving element (20,120) has a recess (16,126) formed in a concave shape from a back surface opposite to the light receiving region (12,122) of that light receiving element and toward the same light receiving region, and the other light receiving element is accommodated in the recess.
A method for a user equipment device, UE, to determine a default beam for dedicated physical uplink control channel, PUCCH, or sounding reference signal, SRS, transmissions in a component carrier, CC, comprising: in response to determining that a base station serving the UE has not configured spatial relationship information for a default beam for transmissions in the CC, determining (1306, 1402) whether a pathloss reference signal, RS, has been configured in the CC; in response to determining that the pathloss RS has been configured in the CC, determining (1312, 1404) the default beam for transmissions based, at least in part, on the pathloss RS; in response to determining that the pathloss RS has not been configured in the CC, determining whether any control resource sets, CORESETs, and/or transmission configuration indication, TCI, states for a physical downlink shared channel, PDSCH, in the CC have been configured; characterized by: in response to determining that no CORESESTs and/or TCI states have been configured in the CC, determining the default beam for transmissions based, at least in part, on a physical random-access channel, PRACH, procedure. in response to determining that a base station serving the UE has not configured spatial relationship information for a default beam for transmissions in the CC, determining (1306, 1402) whether a pathloss reference signal, RS, has been configured in the CC; in response to determining that the pathloss RS has been configured in the CC, determining (1312, 1404) the default beam for transmissions based, at least in part, on the pathloss RS; in response to determining that the pathloss RS has not been configured in the CC, determining whether any control resource sets, CORESETs, and/or transmission configuration indication, TCI, states for a physical downlink shared channel, PDSCH, in the CC have been configured;
A method for operating a network comprising a first primary station and a second primary station, wherein the first primary station serves a first cell including at least one first secondary station communicating with the first primary station and wherein the second primary station serves a second cell including at least one second secondary station communicating with the second primary station, the first primary station and the second primary station being included in a single base station and the method comprising the steps of a) the first primary station and the second primary station transmitting payloads in a synchronous manner on at least one set of resources on the same carrier frequency, b) the first and the second primary stations transmitting control data on at least one subset of the at least one set of resources respectively to the first secondary station and to the second secondary station, the first secondary station searching for the control data by decoding all the messages potentially included in a first search space and the second secondary station searching for the control data by decoding all the messages potentially included in a second search space, wherein the method further comprises c) at least the first primary station rendering the transmission of control data to the first secondary station orthogonal to the transmission of control data from the second primary station by preventing from transmitting on a first subset of the at least one subset of the at least one set of resources, such that the second primary station may use the first subset for transmitting the control data, and the first primary station configuring the first search space such that at least one piece of resource of the first search space is not included in the second search space. a) the first primary station and the second primary station transmitting payloads in a synchronous manner on at least one set of resources on the same carrier frequency, b) the first and the second primary stations transmitting control data on at least one subset of the at least one set of resources respectively to the first secondary station and to the second secondary station, the first secondary station searching for the control data by decoding all the messages potentially included in a first search space and the second secondary station searching for the control data by decoding all the messages potentially included in a second search space, wherein the method further comprises c) at least the first primary station rendering the transmission of control data to the first secondary station orthogonal to the transmission of control data from the second primary station by preventing from transmitting on a first subset of the at least one subset of the at least one set of resources, such that the second primary station may use the first subset for transmitting the control data, and the first primary station configuring the first search space such that at least one piece of resource of the first search space is not included in the second search space.
A method for isolating a solubilized hydrophobic nanoparticle from a growth medium, which comprises: adding a weak acid compound having a pKa between about 2 and about 6 to the growth medium; inducing the nanoparticle to precipitate from the medium optionally by adding an alcoholic solvent to the growth medium to cause the nanoparticle to precipitate from the mixture of growth medium plus weak acid plus alcoholic solvent; and separating the precipitated nanoparticle from the mixture. adding a weak acid compound having a pKa between about 2 and about 6 to the growth medium; inducing the nanoparticle to precipitate from the medium optionally by adding an alcoholic solvent to the growth medium to cause the nanoparticle to precipitate from the mixture of growth medium plus weak acid plus alcoholic solvent; and separating the precipitated nanoparticle from the mixture.