mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a liquid jetting apparatus including: a flow passage formation member in which a pressure chamber is formed to communicate with a nozzle ; and a piezoelectric actuator having a vibration film provided on the flow passage formation member to cover the pressure chamber , a piezoelectric film arranged on the vibration film to correspond to the pressure chamber , a first electrode arranged on a surface of the piezoelectric film on a side near to the vibration film, a second electrode arranged on another surface of the piezoelectric film on a side far from the vibration film, a first protective film covering the piezoelectric film, a wire connected to the second electrode, and a second protective film covering the wire , the method comprising: a first protective film formation step of forming the first protective film on the vibration film to cover the piezoelectric film and the second electrode ; a wire formation step of forming the wire ; a second protective film formation step of forming the second protective film to cover the wire in a state of the first protective film covering the piezoelectric film and the second electrode ; and a first removal step of removing a part of the first protective film , as viewed from the thickness direction, to form an opening that overlaps with the second electrode , after the second protective film formation step, so that the most part of the second electrode is exposed and not covered by the first protective film in the inside area of the opening that is covered by the second electrode . a first protective film formation step of forming the first protective film on the vibration film to cover the piezoelectric film and the second electrode ; a wire formation step of forming the wire ; a second protective film formation step of forming the second protective film to cover the wire in a state of the first protective film covering the piezoelectric film and the second electrode ; and a first removal step of removing a part of the first protective film , as viewed from the thickness direction, to form an opening that overlaps with the second electrode , after the second protective film formation step, so that the most part of the second electrode is exposed and not covered by the first protective film in the inside area of the opening that is covered by the second electrode .
A platinum complex, having a structure represented by formulas I-a to I-d: wherein, R 1 is selected from the group consisting of -H, -C n H 2n+1 , -C n H 2n-1 , -Ar-C n H 2n+1 , -Ar-C n H 2n-1 , -Ar-O-C n H 2n+1 , and -Ar-O-C n H 2n-1 , with n=1∼22; R 4 is selected from the group consisting of -C b H 2b -, -C b H 2b-2 -, -Ar-C b H 2b -, -Ar-C b H 2b-2 -, - Ar-O-C b H 2b -, -Ar-O-C b H 2b-2 -, and hyaluronic acid with two carboxyl groups removed, with b=0∼22; R 5 is selected from the group consisting of -H, -C c H 2c+1 , -C c H 2c-1 , -Ar-C c H 2c+1 , -Ar-C c H 2c-1 , -Ar-O-C c H 2c+1 , -Ar-O-C c H 2c-1 , and chitosan with one amino group removed, with c=1∼22; R 6 is selected from the group consisting of -NH 2 , -NH-CO-(CH 2 ) e CH 3 , -C d H 2d -NH 2 , - C d H 2d-2 -NH 2 , -C d H 2d -COOH, -C d H 2d-2 -COOH, and -CdH2d-NH-CO-(CH2)eCH3, with d=1∼8 and e=1∼21; x=0∼10; wherein H attached to any C can be substituted with a substituent; and wherein the substituent is one or more selected from the group consisting of -NH 2 , -OH, - COOH, halogen, and -Ar. R 1 is selected from the group consisting of -H, -C n H 2n+1 , -C n H 2n-1 , -Ar-C n H 2n+1 , -Ar-C n H 2n-1 , -Ar-O-C n H 2n+1 , and -Ar-O-C n H 2n-1 , with n=1∼22; R 4 is selected from the group consisting of -C b H 2b -, -C b H 2b-2 -, -Ar-C b H 2b -, -Ar-C b H 2b-2 -, - Ar-O-C b H 2b -, -Ar-O-C b H 2b-2 -, and hyaluronic acid with two carboxyl groups removed, with b=0∼22; R 5 is selected from the group consisting of -H, -C c H 2c+1 , -C c H 2c-1 , -Ar-C c H 2c+1 , -Ar-C c H 2c-1 , -Ar-O-C c H 2c+1 , -Ar-O-C c H 2c-1 , and chitosan with one amino group removed, with c=1∼22; R 6 is selected from the group consisting of -NH 2 , -NH-CO-(CH 2 ) e CH 3 , -C d H 2d -NH 2 , - C d H 2d-2 -NH 2 , -C d H 2d -COOH, -C d H 2d-2 -COOH, and -CdH2d-NH-CO-(CH2)eCH3, with d=1∼8 and e=1∼21; x=0∼10; wherein H attached to any C can be substituted with a substituent; and wherein the substituent is one or more selected from the group consisting of -NH 2 , -OH, - COOH, halogen, and -Ar.
A method performed by a User Equipment, UE, for power control of uplink, UL, transmissions, the UE being connected in dual connectivity mode to simultaneously receive and transmit to at least a first network node and a second network node to allow the UE to send an UL transmission to the first network node and an UL transmission to the second network node simultaneously, the method comprising: - determining to perform a first UL transmission to the first network node and a second UL transmission to the second network node, the UL transmissions to be performed simultaneously, - determining a first UL transmission power for the first UL transmission and a second UL transmission power for the second UL transmission, and - transmitting the first and the second UL transmissions at the first and the second UL transmission powers, respectively, when a sum of the first and second UL transmission powers is below a maximum transmission power , wherein if the sum of the first and the second UL transmission powers exceeds the maximum transmission power, the method comprising prioritising between the first UL transmission and the second UL transmission according to a predetermined rule, and wherein the predetermined rule indicates to the UE to prioritise the first UL transmission or the second UL transmission based on a link quality between the UE and the first and the second network nodes, respectively. - determining to perform a first UL transmission to the first network node and a second UL transmission to the second network node, the UL transmissions to be performed simultaneously, - determining a first UL transmission power for the first UL transmission and a second UL transmission power for the second UL transmission, and - transmitting the first and the second UL transmissions at the first and the second UL transmission powers, respectively, when a sum of the first and second UL transmission powers is below a maximum transmission power ,
A vehicle drive apparatus comprising: an input member drivingly connected to an internal combustion engine (EG); an output member drivingly connected to a wheel (W); a friction engagement device ; a rotary electric machine drivingly connected to the input member through the friction engagement device ; a transmission disposed between the rotary electric machine and the output member ; an oil pump (MP); and a case housing the input member , the output member , the friction engagement device , the rotary electric machine , the transmission , and the oil pump (MP), wherein the case includes an intermediate wall disposed between the friction engagement device and the transmission and between the rotary electric machine and the transmission in an axial direction (L), an oil reservoir to store oil is defined in an internal space of the case at a location closer to the transmission than the intermediate wall , the oil pump (MP) supplies oil stored in the oil reservoir to a friction engagement element of the friction engagement device , the intermediate wall is provided with a return oil hole through which oil discharged from the friction engagement element returns toward the oil reservoir , a chain drive is disposed adjacent to a portion of the intermediate wall toward the transmission , the chain drive including a chain to transmit a driving force from at least one of the input member and the rotary electric machine to the oil pump (MP), the vehicle drive apparatus further comprises an oil guide (OG) through which oil flowing through the return oil hole is guided to a region other than a chain placement region (CH) inside the case , the chain placement region (CH) being a region where the chain is placed, and the oil flowing through the return oil hole is guided through the oil guide (OG) and returned to the oil reservoir . the case includes an intermediate wall disposed between the friction engagement device and the transmission and between the rotary electric machine and the transmission in an axial direction (L), an oil reservoir to store oil is defined in an internal space of the case at a location closer to the transmission than the intermediate wall , the oil pump (MP) supplies oil stored in the oil reservoir to a friction engagement element of the friction engagement device , the intermediate wall is provided with a return oil hole through which oil discharged from the friction engagement element returns toward the oil reservoir , a chain drive is disposed adjacent to a portion of the intermediate wall toward the transmission , the chain drive including a chain to transmit a driving force from at least one of the input member and the rotary electric machine to the oil pump (MP), the vehicle drive apparatus further comprises an oil guide (OG) through which oil flowing through the return oil hole is guided to a region other than a chain placement region (CH) inside the case , the chain placement region (CH) being a region where the chain is placed, and the oil flowing through the return oil hole is guided through the oil guide (OG) and returned to the oil reservoir .
An aldehyde composition comprising an aldehyde represented by Formula below and an aldehyde represented by Formula below, wherein a mass ratio [ / ] of the aldehyde represented by Formula to the aldehyde represented by Formula is from 96/4 to 99.97/0.03:
A bio-electrode composition comprising (A) a reaction composite comprising a monomer having an ionic functional group and a carbon particle, wherein the component (A) comprises the carbon particle bonded to the monomer having a structure selected from the group consisting of salts of ammonium, lithium, sodium, potassium, and silver formed with any of fluorosulfonic acid, fluorosulfonimide, and N-carbonyl-fluorosulfonamide, and in the component (A), the monomer having an ionic functional group has an oxirane group or an oxetane group, and the oxirane group or the oxetane group is reacted with and bonded to a hydroxy group, a carboxyl group, or an amino group on a surface of the carbon particle. (A) a reaction composite comprising a monomer having an ionic functional group and a carbon particle, wherein the component (A) comprises the carbon particle bonded to the monomer having a structure selected from the group consisting of salts of ammonium, lithium, sodium, potassium, and silver formed with any of fluorosulfonic acid, fluorosulfonimide, and N-carbonyl-fluorosulfonamide, and in the component (A), the monomer having an ionic functional group has an oxirane group or an oxetane group, and the oxirane group or the oxetane group is reacted with and bonded to a hydroxy group, a carboxyl group, or an amino group on a surface of the carbon particle.
A method for preparing a block copolymer comprising: subjecting a lactide monomer to a ring-opening polymerization in the presence of a poly(3-hydroxypropionate) initiator to prepare a polylactide-poly(3-hydroxypropionate)block copolymer, wherein the poly(3-hydroxypropionate) initiator has a weight average molecular weight of 1,500 to 50,000, wherein the weight average molecular weight is measured as disclosed in the specification..
Reel for storing and paying out a strand, comprising: • a wheel comprising an annular cavity having the same axis as the wheel, • a shell partially covering a sector of the wheel , the wheel being positioned so as to be able to rotate about its axis in the shell, • a strand which is able to bend elastically and is initially straight, of which one part is coiled in the annular cavity and another part is poked out of the reel via a hole in the shell , rotation of the wheel causing the strand to pass through the hole , the reel being characterized in that it further comprises: • a tube which is able to bend elastically and is initially straight, referred to as the starting tube, the length of which is less than that of the strand , sliding freely in the hole over its length, the strand sliding freely within the starting tube , wherein that part of the starting tube that is inside the reel may be coiled in the wheel with the strand , and in that the dimensions of the reel are such that the shell can be gripped with one hand and the rotation of the wheel can be controlled using a finger of the same hand. • a wheel comprising an annular cavity having the same axis as the wheel, • a shell partially covering a sector of the wheel , the wheel being positioned so as to be able to rotate about its axis in the shell, • a strand which is able to bend elastically and is initially straight, of which one part is coiled in the annular cavity and another part is poked out of the reel via a hole in the shell , rotation of the wheel causing the strand to pass through the hole , • a tube which is able to bend elastically and is initially straight, referred to as the starting tube, the length of which is less than that of the strand , sliding freely in the hole over its length, the strand sliding freely within the starting tube , wherein that part of the starting tube that is inside the reel may be coiled in the wheel with the strand ,
A composition for proximity-based protein labeling comprising: a photocatalyst; and a protein labeling agent, wherein the photocatalyst has an electronic structure to activate the protein labeling agent to a reactive intermediate via energy transfer, and wherein the reactive intermediate inserts into a C-H bond of a protein. a photocatalyst; and a protein labeling agent, wherein the photocatalyst has an electronic structure to activate the protein labeling agent to a reactive intermediate via energy transfer, and wherein the reactive intermediate inserts into a C-H bond of a protein.
A thermoplastic resin, comprising: a core prepared by graft-polymerizing 40 to 70 % by weight of a conjugated diene rubbery polymer with 7.5 to 30 % by weight of a total of monomers comprising an aromatic vinyl compound and a vinyl cyanide compound; and a shell enclosing the core and prepared by graft-polymerizing the conjugated diene rubbery polymer with 15 to 45 % by weight of a total of monomers comprising an aromatic vinyl compound and a vinyl cyanide compound, wherein the vinyl cyanide compound of the monomers constituting the core is comprised in an amount of 0.01 to 20 % by weight based on 100 % by weight of a total of the monomers of the core, and the vinyl cyanide compound of the monomers constituting the shell is comprised in an amount of greater than 25 % by weight to 90 % by weight or less based on 100 % by weight of a total of the monomers of the shell, wherein, in the thermoplastic resin, a total graft rate of the core and shell is 55 to 80 %.
An annuloplasty ring comprising: an elongate tube of suturable material formed into a ring; a close-coiled spring formed into a ring corresponding to the ring of suturable material received inside the tube; a stiffener configured to prevent axial compression and resist radial deformation of the ring received in the tube in a first circumferential segment of the ring, wherein the stiffener comprises a metal wire axially received in a circumferential portion of the close-coiled spring corresponding to the first circumferential segment ; and an axial support configured to prevent axial compression of the ring and permit substantially free radial deformation of the ring received in the tube in a second circumferential segment of the ring, wherein the axial support comprises a circumferential portion of the close-coiled spring corresponding to the second circumferential segment not having a metal wire axially received therein. an elongate tube of suturable material formed into a ring; a close-coiled spring formed into a ring corresponding to the ring of suturable material received inside the tube; a stiffener configured to prevent axial compression and resist radial deformation of the ring received in the tube in a first circumferential segment of the ring, wherein the stiffener comprises a metal wire axially received in a circumferential portion of the close-coiled spring corresponding to the first circumferential segment ; and an axial support configured to prevent axial compression of the ring and permit substantially free radial deformation of the ring received in the tube in a second circumferential segment of the ring, wherein the axial support comprises a circumferential portion of the close-coiled spring corresponding to the second circumferential segment not having a metal wire axially received therein.
A gateway switching method, comprising: receiving (S110), by a control plane network element, a switch request message from a target base station; when determining based on the switch request message that User Equipment, UE, needs to perform gateway switching, assigning (S 120), by the control plane network element to the UE, a UE Internet Protocol, IP, address suitable for a target distributed gateway for connection with the target base station in an existing connection of the UE; sending (S130), by the control plane network element, the UE IP address to the target distributed gateway; and sending (S140), by the control plane network element, the UE IP address to the target base station, wherein the UE IP address is further sent to the UE by the target base station. receiving (S110), by a control plane network element, a switch request message from a target base station; when determining based on the switch request message that User Equipment, UE, needs to perform gateway switching, assigning (S 120), by the control plane network element to the UE, a UE Internet Protocol, IP, address suitable for a target distributed gateway for connection with the target base station in an existing connection of the UE; sending (S130), by the control plane network element, the UE IP address to the target distributed gateway; and sending (S140), by the control plane network element, the UE IP address to the target base station, wherein the UE IP address is further sent to the UE by the target base station.
A method for managing a mobile object in a communication network, the method comprising: receiving , by a user plane gateway , UP-GW, at least one parameter from a first access point which is in communication with at least one machine type communication device , MTCD, which is configured to detect the mobile object, the at least one parameter indicative of at least one attribute of the mobile object; sending , by the UP-GW , a trajectory of the mobile object to a connectivity and mobility manager , CMM, wherein the trajectory of the mobile object is obtained based on the at least one parameter; receiving, by the CMM, said trajectory; characterized in that the method further comprises: selecting , by the CMM, a second access point in a proximate region where the object is moving towards, based on said trajectory; and transmitting , by the CMM, trigger data, to a Network Function Virtualization Management and Orchestration , NFV MANO, entity, wherein the trigger data is indicative of instructions for instantiation , by said MANO , of a virtual Network Function, VNF, for a target user plane gateway configured to provide network connectivity to the determined second access point . receiving , by a user plane gateway , UP-GW, at least one parameter from a first access point which is in communication with at least one machine type communication device , MTCD, which is configured to detect the mobile object, the at least one parameter indicative of at least one attribute of the mobile object; sending , by the UP-GW , a trajectory of the mobile object to a connectivity and mobility manager , CMM, wherein the trajectory of the mobile object is obtained based on the at least one parameter; receiving, by the CMM, said trajectory; characterized in that the method further comprises: selecting , by the CMM, a second access point in a proximate region where the object is moving towards, based on said trajectory; and transmitting , by the CMM, trigger data, to a Network Function Virtualization Management and Orchestration , NFV MANO, entity, wherein the trigger data is indicative of instructions for instantiation , by said MANO , of a virtual Network Function, VNF, for a target user plane gateway configured to provide network connectivity to the determined second access point . selecting , by the CMM, a second access point in a proximate region where the object is moving towards, based on said trajectory; and transmitting , by the CMM, trigger data, to a Network Function Virtualization Management and Orchestration , NFV MANO, entity, wherein the trigger data is indicative of instructions for instantiation , by said MANO , of a virtual Network Function, VNF, for a target user plane gateway configured to provide network connectivity to the determined second access point .
Device for fixing cargo inside a truck body, a container or the like, comprising a rail which is horizontally fastened to each of the side walls and has a pitch (T), and on which rail a strap can be positioned by means of a strap holder and can be fixed, by means of a lock connected to the strap holder , in positions at a distance from one another that corresponds to the length of the pitch (T), characterised in that the lock and strap holder are at a distance from one another, and in that this distance is at least three times the length of a pitch (T) of the rail.
A composite of a plurality of adapter elements suitable for connecting a device such as a laser diode to a heat sink , comprising - a first metal layer , which, in the mounted state, faces the component , and a second metal layer , which, in the mounted state, faces the heat sink , and further characterized by - an intermediate layer which is arranged between the first metal layer and the second metal layer and comprises ceramics, the first metal layer and/or the second metal layer being thicker than 40 μm, preferably thicker than 70 μm and particularly preferably thicker than 100 μm, wherein it is possible to separate the adapter elements from a support using a predetermined breaking point , and the adapter elements comprising an electrically conductive contact to the support of the composite . - a first metal layer , which, in the mounted state, faces the component , and a second metal layer , which, in the mounted state, faces the heat sink , and further characterized by - an intermediate layer which is arranged between the first metal layer and the second metal layer and comprises ceramics, the first metal layer and/or the second metal layer being thicker than 40 μm, preferably thicker than 70 μm and particularly preferably thicker than 100 μm, wherein it is possible to separate the adapter elements from a support using a predetermined breaking point , and the adapter elements comprising an electrically conductive contact to the support of the composite .