mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: Receiving, at a secure interface control of a computer system, an access request for a data structure related to a secure entity in a secure domain of the computer system; Checking, by the secure interface control, for a virtual storage address associated with a location of the data structure, wherein checking for the virtual storage address further comprises inspecting a zone-security table to determine whether a virtual address compare indicator bit associated with a host virtual address is enabled or disabled, wherein the zone-security table comprises one entry for each page of host absolute storage, each entry is indexed by a host absolute address, and each entry comprises information to verify the entry as belonging to the secure entity; verifying, by the secure interface control, a mapping of the virtual storage address provided by a non-secure entity based on determining that the virtual address compare indicator bit is enabled; requesting, by the secure interface control, an address translation using a virtual address space (202, 204, 325, 510, 520) of the non-secure entity of the computer system based on determining that the location of the data structure is associated with the virtual storage address; and accessing, by the secure interface control, the data structure based on a result of the address translation. Receiving, at a secure interface control of a computer system, an access request for a data structure related to a secure entity in a secure domain of the computer system; Checking, by the secure interface control, for a virtual storage address associated with a location of the data structure, wherein checking for the virtual storage address further comprises inspecting a zone-security table to determine whether a virtual address compare indicator bit associated with a host virtual address is enabled or disabled, wherein the zone-security table comprises one entry for each page of host absolute storage, each entry is indexed by a host absolute address, and each entry comprises information to verify the entry as belonging to the secure entity; requesting, by the secure interface control, an address translation using a virtual address space (202, 204, 325, 510, 520) of the non-secure entity of the computer system based on determining that the location of the data structure is associated with the virtual storage address; and accessing, by the secure interface control, the data structure based on a result of the address translation.
A process for preparing a colloidal material of formula A n X m, the process comprising the steps of: a) providing A carboxylate and X in a non-coordinating solvent, wherein A carboxylate is A(R-COO)p; b) degassing the mixture obtained in step (a); c) heating the degassed mixture obtained in step (b) to a temperature between 100 and 280°C, preferably between 120 and 240°C, thus inducing solution phase decomposition of the mixture of A carboxylate and X, thereby producing a A n X m colloidal material; d) injecting the acetate salt or acetic acid between steps (a) and (b) or during step (b) or between steps (b) and (c) or during the heating step (c), preferably during step (c); and e) recovering the A n X m colloidal material which is in the form of platelets; wherein p is 1 or 2; R is a linear or branched C 1-30 alkyl group; X is a metal selected from groups V or VI of the periodic table; A is an element selected from groups II, III or IV of the periodic table; n and m are such that A n X m is a neutral compound; and A and X are selected respectively from one the following combinations: A from group II, X from group VI; or A from group III, X from group V; or A from group IV, X from group VI, and wherein the platelets thickness is quantified by a A n X m monolayer, and wherein A is selected from the group comprising Cd, Zn, Mg, In or mixture thereof and X is selected from the group comprising Se, Te, S, P, As and Sb or mixture thereof.. a) providing A carboxylate and X in a non-coordinating solvent, wherein A carboxylate is A(R-COO)p; b) degassing the mixture obtained in step (a); c) heating the degassed mixture obtained in step (b) to a temperature between 100 and 280°C, preferably between 120 and 240°C, thus inducing solution phase decomposition of the mixture of A carboxylate and X, thereby producing a A n X m colloidal material; d) injecting the acetate salt or acetic acid between steps (a) and (b) or during step (b) or between steps (b) and (c) or during the heating step (c), preferably during step (c); and e) recovering the A n X m colloidal material which is in the form of platelets; p is 1 or 2; R is a linear or branched C 1-30 alkyl group; X is a metal selected from groups V or VI of the periodic table; A is an element selected from groups II, III or IV of the periodic table; n and m are such that A n X m is a neutral compound; and A and X are selected respectively from one the following combinations: A from group II, X from group VI; or A from group III, X from group V; or A from group IV, X from group VI, and wherein the platelets thickness is quantified by a A n X m monolayer, and wherein A is selected from the group comprising Cd, Zn, Mg, In or mixture thereof and X is selected from the group comprising Se, Te, S, P, As and Sb or mixture thereof..
A drive for a sliding door, a pivoting/sliding door, or a sliding step, comprising a drive unit with a drive pulley, and a redirection pulley spaced apart from the latter, wherein a means of traction is arranged circulating around the drive pulley and the redirection pulley, wherein a cable drum is arranged between the drive pulley and the redirection pulley, which drum is connected to a door driver, and wherein the means of traction and the cable drum are connected to each other such that, as the means of traction circulates, a torque is applied to the cable drum, and a movement of the cable drum in the direction of travel between a first end position and a second end position is caused, wherein in one of the two end positions the cable drum is rotated, relative to the direction of travel, into a locking position, wherein the cable drum is connected in a rotationally-fixed manner to a guide bar, which, in the locking position, is orientated at an angle to the direction of travel, and serves as a stop element, wherein the guide bar is accommodated within a guide rail, and wherein the guide rail has a first section that extends in the direction of travel, and counteracts any rotation of the cable drum together with the guide bar, and wherein the guide rail has a second section that extends at an angle to the direction of travel, and in which the cable drum, together with the guide bar, can be rotated into the locking position by virtue of the torque applied by the means of traction.
A reusable nutrient cartridge comprising: an outer housing having an inlet and an outlet; and nutrient-adsorbing material contained within the housing, the nutrient-adsorbing material comprising a zeolitic material which is configured to adsorb nutrients; wherein the cartridge can be charged with the nutrients by flowing a nutrient stream through the inlet, through the nutrient-adsorbing material, and through the outlet to enable the nutrient-adsorbing material to adsorb the nutrients, wherein the cartridge can be later discharged of the nutrients by flowing water through the inlet, through the nutrient-adsorbing material, and through the outlet so as to transfer the nutrients to the water to generate a dilute nutrient solution including nitrogen, phosphorus, potassium, calcium and magnesium that is suitable for use as a fertilizer, wherein the cartridge further comprises means for measuring a level of nutrient charge of the cartridge and an indicator configured to provide an indication of the level of nutrient charge to a user, wherein the level of nutrient charge is proportional to the concentration of nutrients within the cartridge. an outer housing having an inlet and an outlet; and nutrient-adsorbing material contained within the housing, the nutrient-adsorbing material comprising a zeolitic material which is configured to adsorb nutrients; wherein the cartridge can be charged with the nutrients by flowing a nutrient stream through the inlet, through the nutrient-adsorbing material, and through the outlet to enable the nutrient-adsorbing material to adsorb the nutrients, wherein the cartridge can be later discharged of the nutrients by flowing water through the inlet, through the nutrient-adsorbing material, and through the outlet so as to transfer the nutrients to the water to generate a dilute nutrient solution including nitrogen, phosphorus, potassium, calcium and magnesium that is suitable for use as a fertilizer, wherein the cartridge further comprises means for measuring a level of nutrient charge of the cartridge and an indicator configured to provide an indication of the level of nutrient charge to a user, wherein the level of nutrient charge is proportional to the concentration of nutrients within the cartridge.
A method for processing a Multimedia Broadcast Multicast Service, MBMS, error, the method being carried out in an application server and said method comprising the steps of: receiving indication information of the MBMS error, the indication information being formed according to error indicator of the MBMS error of network equipment, and the error indicator being extracted from MBMS Scheduling Information, MSI, or Radio Resource Control, RRC, signalling sent by an Evolved Node B, eNB; establishing a unicast bearer according to the indication information; and sending data through the unicast bearer, wherein the data includes received data which is being received by User Equipment, UE, through an MBMS bearer or data of interest which the UE is interested in when the MBMS error occurs, and wherein the error indicator is born by a newly added value of the MSI or the preserved value 2043 or 2046 for indicating whether a fault occurs in the network equipment such that the error that MBMS data cannot be transmitted or not is caused; and the RRC signalling is existing RRC signalling or a newly added RRC signalling specifically for transmitting the error indicator. receiving indication information of the MBMS error, the indication information being formed according to error indicator of the MBMS error of network equipment, and the error indicator being extracted from MBMS Scheduling Information, MSI, or Radio Resource Control, RRC, signalling sent by an Evolved Node B, eNB; establishing a unicast bearer according to the indication information; and sending data through the unicast bearer, wherein the data includes received data which is being received by User Equipment, UE, through an MBMS bearer or data of interest which the UE is interested in when the MBMS error occurs, and wherein the error indicator is born by a newly added value of the MSI or the preserved value 2043 or 2046 for indicating whether a fault occurs in the network equipment such that the error that MBMS data cannot be transmitted or not is caused; and the RRC signalling is existing RRC signalling or a newly added RRC signalling specifically for transmitting the error indicator.
A package insert module, comprising a turntable configured to rotate about a central post, an insert assembly mounted on the turntable and including a finger arrangement configured to offload a plurality of packages arranged in an array on a nest, characterized in that the finger arrangement of the insert assembly includes a lower finger assembly and an upper finger assembly, and in that upper finger assembly is configured to move vertically relative to the lower finger assembly to clamp and release the packages between the upper finger assembly and the lower finger assembly.
A composition comprising (i) bacterially derived intact minicells, having intact cell walls, loaded with a therapeutically effective amount of a chemotherapeutic drug, (ii) a pharmaceutically acceptable carrier therefor, and (iii) a bispecific ligand that is capable of binding to a surface component of said minicells and to a surface component of a non-phagocytic mammalian cell.
An electrochemical cell comprising: a first phase defining a negative electrode comprising a first active metal; a second phase defining a positive electrode, separated from the negative electrode, comprising a second active metal; and a third phase defining a molten salt electrolyte, between the negative electrode and the positive electrode, comprising a salt of the first active metal and a salt of the second active metal, the electrolyte defining first and second interfaces, the negative electrode being in contact with the electrolyte at the first interface and the positive electrode being in contact with the electrolyte at the second interface, where the molten salt electrolyte is in the molten state when the cell is in operation. a first phase defining a negative electrode comprising a first active metal; a second phase defining a positive electrode, separated from the negative electrode, comprising a second active metal; and a third phase defining a molten salt electrolyte, between the negative electrode and the positive electrode, comprising a salt of the first active metal and a salt of the second active metal, the electrolyte defining first and second interfaces, the negative electrode being in contact with the electrolyte at the first interface and the positive electrode being in contact with the electrolyte at the second interface, where the molten salt electrolyte is in the molten state when the cell is in operation.
A heat exchange apparatus of a laundry drying appliance, characterized by comprising a flat body (14, 140, 240), the body having a tiled fluid passage (11, 110, 210), the fluid passage having an outlet (13, 112, 212) and an inlet (12, 111) adapted to receive a cooling medium that enters the fluid passage from the inlet and leaves the fluid passage from the outlet, wherein the body is at least partially made of metal or a material whose thermal conductivity is not inferior to that of metal, characterized in that the body comprises a through hole (15, 1500), the fluid passages being distributed around the through hole, wherein the body comprises a first sheet and a second sheet that are attached to each other and that are substantially annular, the fluid passage being formed therebetween, wherein the first sheet is generally flat and the second sheet has a pre-formed groove, wherein the fluid passage 110 is formed in a space surrounded by the groove and the first sheet.
A lithium secondary battery comprising: a positive electrode layer composed of a cobalt-containing lithium complex oxide sintered body; a negative electrode layer composed of a titanium-containing sintered body; a ceramic separator interposed between the positive electrode layer and the negative electrode layer and containing MgO; an electrolytic solution with which the positive electrode layer, the negative electrode layer, and the ceramic separator are impregnated; and an exterior body comprising a closed space, the closed space accommodating the positive electrode layer, the negative electrode layer, the ceramic separator, and the electrolytic solution, wherein the positive electrode layer, the ceramic separator, and the negative electrode layer are bonded together, wherein an interface between the negative electrode layer and the ceramic separator has a larger roughness than an interface between the positive electrode layer and the ceramic separator, and wherein the roughness is determined as indicated in the description. a positive electrode layer composed of a cobalt-containing lithium complex oxide sintered body; a negative electrode layer composed of a titanium-containing sintered body; a ceramic separator interposed between the positive electrode layer and the negative electrode layer and containing MgO; an electrolytic solution with which the positive electrode layer, the negative electrode layer, and the ceramic separator are impregnated; and an exterior body comprising a closed space, the closed space accommodating the positive electrode layer, the negative electrode layer, the ceramic separator, and the electrolytic solution, wherein the positive electrode layer, the ceramic separator, and the negative electrode layer are bonded together, wherein an interface between the negative electrode layer and the ceramic separator has a larger roughness than an interface between the positive electrode layer and the ceramic separator, and wherein the roughness is determined as indicated in the description.
A method of wireless communication performed by a first type of user equipment, UE, operable in a narrow bandwidth, comprising: receiving narrowband downlink information comprising at least a portion of a common reference signal, control information, and data, the narrow bandwidth narrower than a wide bandwidth in which a second type of UE is operable; and performing channel measurements using the at least the portion of the common reference signal, the method characterized by further comprising: receiving an indication of a starting symbol of an effective data region for narrowband downlink information, the starting symbol selected from a plurality of symbols, such that the starting symbol is semi-statically configured. receiving narrowband downlink information comprising at least a portion of a common reference signal, control information, and data, the narrow bandwidth narrower than a wide bandwidth in which a second type of UE is operable; and performing channel measurements using the at least the portion of the common reference signal, the method characterized by further comprising: receiving an indication of a starting symbol of an effective data region for narrowband downlink information, the starting symbol selected from a plurality of symbols, such that the starting symbol is semi-statically configured.
Use of a polypeptide having DNase activity for preventing, reducing or removing a biofilm from an item, wherein the polypeptide is obtained from a fungal source and the item is a textile and wherein the polypeptide having DNase activity has at least 80% sequence identity to the mature polypeptide of SEQ ID NO: 9.
A X-ray waveguide comprising: a core configured to guide X-rays; and a cladding configured to confine the X-rays in the core, wherein the core has a one-dimensional periodic structure in which a plurality of layers respectively formed of inorganic materials having different real parts of refractive indices are periodically laminated, the core and the cladding are configured so that a critical angle for total reflection for the X-rays at an interface between the core and the cladding is larger than a Bragg angle due to a periodicity of the one-dimensional periodic structure, and a critical angle for total reflection for the X-rays at an interface between layers in the one-dimensional periodic structure is smaller than the Bragg angle due to the periodicity of the one-dimensional periodic structure. a core configured to guide X-rays; and a cladding configured to confine the X-rays in the core, wherein the core has a one-dimensional periodic structure in which a plurality of layers respectively formed of inorganic materials having different real parts of refractive indices are periodically laminated, the core and the cladding are configured so that a critical angle for total reflection for the X-rays at an interface between the core and the cladding is larger than a Bragg angle due to a periodicity of the one-dimensional periodic structure, and a critical angle for total reflection for the X-rays at an interface between layers in the one-dimensional periodic structure is smaller than the Bragg angle due to the periodicity of the one-dimensional periodic structure.
A fluid applicator (900; 1100; 1500; 1700; 1750; 1752; 1780; 2600; 2700; 2891; 2892; 2893; 2894; 3200) for applying fluids to plants in rows in a field comprising: a base (912; 1140; 1512;2812) or bracket configured to be disposed between the rows of plants during operation, at least one flexible or pivoting application member (3050;3322;2805;2806;2807;2822; 2720a;2720b; 920a; 920b; 922; 982; 1522; 1528; 3110; 1113-1118; 1520a; 1520b; 1520a'; 1520b; 1720) connected to the base or bracket and disposed to apply fluid to the plants, and a stabilizer associated with the at least one flexible or pivoting application member, characterized in that the stabilizer comprises at least one of a) a spring disposed over the at least one flexible application member, b) a reinforcement wire that is disposed on or in the at least one application member and disposed along a length of the at least one application member, c) a wire (2851; 3030) attached to the at least one application member (2805;2806), the wire having a length to contact at least one plant, and d) a damper (2861; 2862). a base (912; 1140; 1512;2812) or bracket configured to be disposed between the rows of plants during operation, at least one flexible or pivoting application member (3050;3322;2805;2806;2807;2822; 2720a;2720b; 920a; 920b; 922; 982; 1522; 1528; 3110; 1113-1118; 1520a; 1520b; 1520a'; 1520b; 1720) connected to the base or bracket and disposed to apply fluid to the plants, and a stabilizer associated with the at least one flexible or pivoting application member, characterized in that the stabilizer comprises at least one of a) a spring disposed over the at least one flexible application member, b) a reinforcement wire that is disposed on or in the at least one application member and disposed along a length of the at least one application member, c) a wire (2851; 3030) attached to the at least one application member (2805;2806), the wire having a length to contact at least one plant, and d) a damper (2861; 2862). a) a spring disposed over the at least one flexible application member, b) a reinforcement wire that is disposed on or in the at least one application member and disposed along a length of the at least one application member, c) a wire (2851; 3030) attached to the at least one application member (2805;2806), the wire having a length to contact at least one plant, and d) a damper (2861; 2862).