mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating a learning model of a data learning server (DS), for setting the temperature of an air conditioner (A), the method comprising: obtaining a set temperature set in the air conditioner (A) and a current temperature of the air conditioner (A) at a time of obtaining the set temperature; transmitting the set temperature and the current temperature to the data learning server (DS); generating a plurality of learning models for each operation mode of the air conditioner (A) by the data learning server (DS) by using the obtained set temperature of the air conditioner (A) and the current temperature of the air conditioner (A), wherein the learning model is configured to provide a recommended temperature of the air conditioner (A); storing the generated plurality of learning models in an analysis database (DS3) of the learning server (DS). obtaining a set temperature set in the air conditioner (A) and a current temperature of the air conditioner (A) at a time of obtaining the set temperature; transmitting the set temperature and the current temperature to the data learning server (DS); generating a plurality of learning models for each operation mode of the air conditioner (A) by the data learning server (DS) by using the obtained set temperature of the air conditioner (A) and the current temperature of the air conditioner (A), wherein the learning model is configured to provide a recommended temperature of the air conditioner (A); storing the generated plurality of learning models in an analysis database (DS3) of the learning server (DS).
A cyclic peptide analog of galanin, wherein the galanin analog comprises a (methyl)lanthionine bridge and wherein the analog has the general formula "X1-X2-X3-X4-X5-X6-X7-X8-X9-X10-X11 -X12-X13-X14-X15-X16-X17-X18-X19-X20-X21-X22, or a truncated variant thereof lacking X1 and/or up to 6 of the C-terminal residues, wherein two residues selected from the group consisting of X13-X19 together form a Lanthionine bridge of the structure Ala-S-Ala, or a methylLanthionine bridge of the structure Abu-S-Ala or Ala-S-Abu, wherein: X1 is pE or G X2 is WN X3 is L X4 is N X5 is A X6 is A X7 is G X8 is Y X9 is L X10 is L X11 is G or A X12 is P or A X13 is H, (me)lan, V, Q, P, Q, E, K, A X14 is A, (me)lan, L, Q, P, H, K, I X15 is V, (me)lan, P, F, G, K, A X16 is (me)lan, P, F, L, N or G X17 is N, (me)lan, P, G, S, A or H X18 is H, (me)lan, A, L, P, A or R X19 is R, (me)lan, L, M, F, A X20 is R, A, X21 is L, and X22 is A, in which pE means pyroglutamate; (me)lan means Lan or meLan, wherein Lan denotes the N- or C-terminal half of a Lanthionine (Ala-S-Ala) and meLan denotes the N- or C-terminal half of a methylLanthionine (Abu-S-Ala or Ala-S-Abu); with the proviso that not more than two of X13-X19 are (me)lan which together form a (methyl)Lanthionine bridge and wherein said (methyl)Lanthionine bridge is of the size i, i+3 or i, i+4 or i, i+5. X1 is pE or G X2 is WN X3 is L X4 is N X5 is A X6 is A X7 is G X8 is Y X9 is L X10 is L X11 is G or A X12 is P or A X13 is H, (me)lan, V, Q, P, Q, E, K, A X14 is A, (me)lan, L, Q, P, H, K, I X15 is V, (me)lan, P, F, G, K, A X16 is (me)lan, P, F, L, N or G X17 is N, (me)lan, P, G, S, A or H X18 is H, (me)lan, A, L, P, A or R X19 is R, (me)lan, L, M, F, A X20 is R, A, X21 is L, and X22 is A, pE means pyroglutamate; (me)lan means Lan or meLan, wherein Lan denotes the N- or C-terminal half of a Lanthionine (Ala-S-Ala) and meLan denotes the N- or C-terminal half of a methylLanthionine (Abu-S-Ala or Ala-S-Abu);
A peptide derivative having formula (I) X-DAsn-DVal-DVal-DLys-Y (I) wherein: X is an acyl group -CO-(CH 2 ) n CH 3 linked to the Asparagine N-terminus, wherein n is an integer comprised between 0 and 20, and Y is the -OH at the Lysine C-terminus, or it is an amino group -NR 1 R 2 linked to the Lysine C-terminus, wherein R 1 and R 2 , equal or different from each other, are selected from between H and an alkyl group -(CH 2 ) m CH 3 wherein m is an integer comprised between 0 and 2. X is an acyl group -CO-(CH 2 ) n CH 3 linked to the Asparagine N-terminus, wherein n is an integer comprised between 0 and 20, and Y is the -OH at the Lysine C-terminus, or it is an amino group -NR 1 R 2 linked to the Lysine C-terminus, wherein R 1 and R 2 , equal or different from each other, are selected from between H and an alkyl group -(CH 2 ) m CH 3 wherein m is an integer comprised between 0 and 2.
A process for controlling particle size of a catalyst composition, comprising the steps of: (i) contacting an internal donor with an organomagnesium precursor solution to form an intermediate solution; and (ii) treating the intermediate solution with a transition metal compound to form a catalyst composition, wherein particle size of the catalyst composition is controlled by controlling a contact time of the internal donor with the precursor solution during formation of the intermediate solution, which comprises: maintaining the contact time of the internal donor with the precursor solution during formation of the intermediate solution between 5 to 120 minutes to obtain the catalyst composition having average particle size in the range of 10 to 60 microns; maintaining the contact time of the internal donor with the precursor solution during formation of the intermediate solution between 10 to 90 minutes to obtain the catalyst composition having average particle size in the range of 20 to 50 microns; and maintaining the contact time of the internal donor with the precursor solution during formation of the intermediate solution between 10 to 60 minutes to obtain the catalyst composition having average particle size in the range of 20 to 45 microns, wherein the organomagnesium precursor solution is obtained by dissolving the organomagnesium precursor in a solvent wherein the organomagnesium precursor is liquid or solid in nature; wherein the liquid organomagnesium precursor is prepared by contacting magnesium source with organohalide and alcohol in presence of the solvent in a single step; or wherein the solid organomagnesium precursor is prepared by first contacting the magnesium source with organohalide in presence of solvating agent as the first step and then followed by addition of alcohol; and wherein the magnesium source is magnesium metal. (i) contacting an internal donor with an organomagnesium precursor solution to form an intermediate solution; and (ii) treating the intermediate solution with a transition metal compound to form a catalyst composition, maintaining the contact time of the internal donor with the precursor solution during formation of the intermediate solution between 5 to 120 minutes to obtain the catalyst composition having average particle size in the range of 10 to 60 microns; maintaining the contact time of the internal donor with the precursor solution during formation of the intermediate solution between 10 to 90 minutes to obtain the catalyst composition having average particle size in the range of 20 to 50 microns; and maintaining the contact time of the internal donor with the precursor solution during formation of the intermediate solution between 10 to 60 minutes to obtain the catalyst composition having average particle size in the range of 20 to 45 microns,
A heat exchanger comprising a casing forming a channel for flue gases, wherein the channel has a longitudinal center axis (x), a tube arrangement for a fluid to be heated by the flue gases, wherein the tube arrangement comprises a first tube (11-14) provided in the channel and configured to convey the fluid, wherein the first tube (11-14) comprises a helical coil having a longitudinal center axis (x'), a plurality of turns and a default pitch (P D ), and wherein the first tube (11-14) comprises a fluid inlet end and a fluid outlet end, and a soot blowing device comprising a first ejection pipe having a plurality of nozzle openings in a pipe wall and being configured to permit ejection of a cleaning medium onto the first tube (11-14), characterized in that the first ejection pipe is provided at an intermediate position in the helical coil of the first tube (11-14) between two adjacent turns of the helical coil of the first tube (11-14), wherein the first ejection pipe extends at least partly around the longitudinal center axis (x') of the helical coil of the first tube (11-14) and at least partly along said two adjacent turns of the helical coil of the first tube (11-14). a casing forming a channel for flue gases, wherein the channel has a longitudinal center axis (x), a tube arrangement for a fluid to be heated by the flue gases, wherein the tube arrangement comprises a first tube (11-14) provided in the channel and configured to convey the fluid, wherein the first tube (11-14) comprises a helical coil having a longitudinal center axis (x'), a plurality of turns and a default pitch (P D ), and wherein the first tube (11-14) comprises a fluid inlet end and a fluid outlet end, and a soot blowing device comprising a first ejection pipe having a plurality of nozzle openings in a pipe wall and being configured to permit ejection of a cleaning medium onto the first tube (11-14), characterized in that the first ejection pipe is provided at an intermediate position in the helical coil of the first tube (11-14) between two adjacent turns of the helical coil of the first tube (11-14), wherein the first ejection pipe extends at least partly around the longitudinal center axis (x') of the helical coil of the first tube (11-14) and at least partly along said two adjacent turns of the helical coil of the first tube (11-14).
A refrigerant leakage determination system comprising: a refrigerant circuit including a compressor , a condenser , an expansion mechanism , and an evaporator , the refrigerant leakage determination system further comprising a first determination unit that is configured to determine that refrigerant has leaked from the refrigerant circuit , by using a first state amount of refrigerant as a determination index, the first state amount including at least one of an outlet temperature of the condenser, a suction temperature of the compressor, and a discharge temperature of the compressor; and a second determination unit that is configured to determine that refrigerant has leaked from the refrigerant circuit , based on information different from the first state amount, characterized in that a determination result of the first determination unit is verified by using a determination result of the second determination unit . a refrigerant circuit including a compressor , a condenser , an expansion mechanism , and an evaporator , the refrigerant leakage determination system further comprising a first determination unit that is configured to determine that refrigerant has leaked from the refrigerant circuit , by using a first state amount of refrigerant as a determination index, the first state amount including at least one of an outlet temperature of the condenser, a suction temperature of the compressor, and a discharge temperature of the compressor; and a second determination unit that is configured to determine that refrigerant has leaked from the refrigerant circuit , based on information different from the first state amount, characterized in that a determination result of the first determination unit is verified by using a determination result of the second determination unit .
Hydraulic drive system (10; 10') comprising at least one first actuator , a tank , a first nonreturn valve and a first and a second pump (40; 50), wherein the first pump has a constant displacement volume, wherein the second pump has an adjustable displacement volume, wherein a first fluid flow path starting from the tank runs via the first pump , further via a first control point , further via the first nonreturn valve , to a second control point , wherein the at least one first actuator is fluidically connected to the second control point , wherein the first nonreturn valve permits a fluid flow only towards the second control point , wherein a second fluid flow path leads from the tank to the second control point via the second pump , wherein pressurized fluid can be conducted from the first control point to the tank via an adjustable first orifice , wherein the first orifice is loaded in the opening direction by the pressure at the second control point , wherein the first and the second pump (40; 50) are or can be brought into a rotational drive connection to each other, wherein their relative direction of rotation is fixedly predefined, wherein the first orifice is loaded in the closing direction by a fixedly predefinable control force which is independent of an individual load pressure acting in the at least one first actuator , characterized in that the second pump is adjustable in two opposite directions from a position having a zero displacement volume, so that it can be operated optionally as a pump or as a motor with the same direction of rotation.
Method of assembling an electrical connector to a multi-core sheathed cable extending in a longitudinal direction and comprising a plurality of cores surrounded by a cable sheath , wherein - a sealing element of a sealing material is applied to the plurality of cores , wherein the sealing element is a solid, integral and non-slitted component and comprises a single feedthrough through the sealing material for each of the cores , wherein - the sealing element is pushed onto the plurality of cores , - subsequently a contact element is connected at the end to the respective cores , - subsequently the cores are mounted in a connector housing , the connector housing having a receptacle at its rear end and the sealing element being pushed into the receptacle and being displaced along the cores for this purpose, so that the sealing element lies in the receptacle in a sealing manner, - a sealing sheath is applied, which extends from the rear end of the connector housing to the cable sheath , wherein - the sealing element is manufactured in such a way that the sealing element tapers conically in the longitudinal direction, - the receptacle is manufactured in such a way that the receptacle has a conical design complementary to the sealing element , - the sealing element is manufactured in such a way that the sealing element is softer than the connector housing , - the sealing element is manufactured from a thermoplastic polyurethane material. - a sealing element of a sealing material is applied to the plurality of cores , wherein the sealing element is a solid, integral and non-slitted component and comprises a single feedthrough through the sealing material for each of the cores , wherein - the sealing element is pushed onto the plurality of cores , - subsequently a contact element is connected at the end to the respective cores , - subsequently the cores are mounted in a connector housing , the connector housing having a receptacle at its rear end and the sealing element being pushed into the receptacle and being displaced along the cores for this purpose, so that the sealing element lies in the receptacle in a sealing manner, - a sealing sheath is applied, which extends from the rear end of the connector housing to the cable sheath , wherein - the sealing element is manufactured in such a way that the sealing element tapers conically in the longitudinal direction, - the receptacle is manufactured in such a way that the receptacle has a conical design complementary to the sealing element , - the sealing element is manufactured in such a way that the sealing element is softer than the connector housing , - the sealing element is manufactured from a thermoplastic polyurethane material.
A data processing, DP, accelerator , comprising: one or more statically partitioned resources ; one or more virtual functions, VFs, , each associated uniquely with one of the one or more statically partitioned resources , wherein a virtual machine, VM, of a host is assigned with one of the one or more VFs to access only the statically partitioned resources associated with the assigned VF , and wherein the rest of the one or more statically partitioned resources of the DP accelerator are inaccessible to the VM ; queues ; and characterized in that the DP accelerator further comprising a data sorter , configured to sort a result of a request received from a VM based on an identifier of said VM determined by the DP accelerator and send the result to one of the queues associated with the identifier, such that the queue queues the result to be transmitted from the corresponding VF to said VM using direct memory access. one or more statically partitioned resources ; one or more virtual functions, VFs, , each associated uniquely with one of the one or more statically partitioned resources , wherein a virtual machine, VM, of a host is assigned with one of the one or more VFs to access only the statically partitioned resources associated with the assigned VF , and wherein the rest of the one or more statically partitioned resources of the DP accelerator are inaccessible to the VM ; queues ; and characterized in that the DP accelerator further comprising a data sorter , configured to sort a result of a request received from a VM based on an identifier of said VM determined by the DP accelerator and send the result to one of the queues associated with the identifier, such that the queue queues the result to be transmitted from the corresponding VF to said VM using direct memory access.
A union screw for pipes provided with at least one flare , in particular brake pipes, comprising: a metal base body extending in an axial direction (x) and having a through opening having a diameter (D) in a radial direction (r) and adapted to receive the pipe ; a screw head formed on the base body , which is configured to transmit a torque to the union screw ; a threaded portion formed on the base body , the threaded portion having an external thread and being adapted to screw the union screw into a tapped hole ; a contact portion formed on the base body and adapted to abut the flare of the pipe , and a functional layer with which the base body is coated at least in the region of the threaded portion and the contact portion ; wherein the functional layer is multilayered and is composed at least of a base coat and a top coat applied to the base coat at least in regions; wherein the top coat contains a lubricant to provide a friction reducing coating, and wherein the base coat comprises a binder and zinc to provide corrosion protection; characterized in that the base coat forms a structure in which the zinc is in the form of zinc-containing lamellae ; wherein the zinc-containing lamellae are oriented to lie substantially flat on the base body . a metal base body extending in an axial direction (x) and having a through opening having a diameter (D) in a radial direction (r) and adapted to receive the pipe ; a screw head formed on the base body , which is configured to transmit a torque to the union screw ; a threaded portion formed on the base body , the threaded portion having an external thread and being adapted to screw the union screw into a tapped hole ; a contact portion formed on the base body and adapted to abut the flare of the pipe , and a functional layer with which the base body is coated at least in the region of the threaded portion and the contact portion ; wherein the functional layer is multilayered and is composed at least of a base coat and a top coat applied to the base coat at least in regions; wherein the top coat contains a lubricant to provide a friction reducing coating, and wherein the base coat comprises a binder and zinc to provide corrosion protection; characterized in that the base coat forms a structure in which the zinc is in the form of zinc-containing lamellae ; wherein the zinc-containing lamellae are oriented to lie substantially flat on the base body .
Method for estimating the residual torque between the braked and braking elements of a brake of vehicle that is characterized by the following phases: · acquisition of the temperature value of said braking element; · determination of whether said brake is activated when the temperature value is acquired; · acceptance of the acquired temperature value if said brake is not activated at said acquisition time; · if the acquired temperature value is accepted, then a temperature reference value is automatically calculated by providing an N-dimensional vector of variables as input to said N-dimensional calculation model; · where said N-dimensional vector of variables includes at least the acquired temperature of said braking element; · where said N-dimensional calculation model is an analytical or experimental characterization of the thermal behavior of the brake; · estimation of residual torque by comparing the accepted acquired temperature to the calculated reference temperature. · acquisition of the temperature value of said braking element; · determination of whether said brake is activated when the temperature value is acquired; · acceptance of the acquired temperature value if said brake is not activated at said acquisition time; · if the acquired temperature value is accepted, then a temperature reference value is automatically calculated by providing an N-dimensional vector of variables as input to said N-dimensional calculation model; · where said N-dimensional vector of variables includes at least the acquired temperature of said braking element; · where said N-dimensional calculation model is an analytical or experimental characterization of the thermal behavior of the brake; · estimation of residual torque by comparing the accepted acquired temperature to the calculated reference temperature.
A heat pump , comprising: a plurality of compressors configured to compress and eject a refrigerant; a first heat exchanger configured to condense the refrigerant from the compressors; a flow rate adjustment valve configured to adjust a flow rate of the refrigerant condensed in the first heat exchanger; an expansion valve whose opening is adjustable, which is configured to decompress the refrigerant having passed the flow rate adjustment valve; a second heat exchanger configured to cool a temperature control target by using the refrigerant decompressed by the expansion valve; and a control device configured to control the opening of the expansion valve based on a difference between the temperature of the refrigerant flowing into the second heat exchanger and the temperature of the refrigerant flowing out from the second heat exchanger, and to control the opening of the flow rate adjustment valve based on the number of in-operation compressors and their rotation speeds. a plurality of compressors configured to compress and eject a refrigerant; a first heat exchanger configured to condense the refrigerant from the compressors; a flow rate adjustment valve configured to adjust a flow rate of the refrigerant condensed in the first heat exchanger; an expansion valve whose opening is adjustable, which is configured to decompress the refrigerant having passed the flow rate adjustment valve; a second heat exchanger configured to cool a temperature control target by using the refrigerant decompressed by the expansion valve; and a control device configured to control the opening of the expansion valve based on a difference between the temperature of the refrigerant flowing into the second heat exchanger and the temperature of the refrigerant flowing out from the second heat exchanger, and to control the opening of the flow rate adjustment valve based on the number of in-operation compressors and their rotation speeds.