mhurhangee/patent-ind-claim-en huggingface dataset:
A film with electrically conductive structures, characterized in that the film has a polyvinyl acetal PA and 0 to 16% by weight of at least one plasticizer WA as well as discrete electrically conductive structures.
A wet shaving razor comprising: a. a handle having a proximate and a distal end; b. a razor cartridge mounted at the proximate end of said handle , said cartridge further comprising 1) a housing having a front wall , a rear wall , and opposing side walls joining said front and rear walls; 2) a plurality of razor blades , each blade having a sharpened cutting edge and wherein said blades are disposed in a parallel arrangement extending between said side walls ; characterized in that said cartridge further comprises 3) an abrasion material disposed adjacent to said front wall and forward of said blades , wherein said abrasion material comprises a plurality of geometric, three-dimensional, microstructures in which each microstructure has a peak, wherein the top surface of said microstructure peak is uniform in height from the base surface of the abrasion material . a. a handle having a proximate and a distal end; b. a razor cartridge mounted at the proximate end of said handle , said cartridge further comprising 1) a housing having a front wall , a rear wall , and opposing side walls joining said front and rear walls; 2) a plurality of razor blades , each blade having a sharpened cutting edge and wherein said blades are disposed in a parallel arrangement extending between said side walls ; characterized in that said cartridge further comprises 3) an abrasion material disposed adjacent to said front wall and forward of said blades , wherein said abrasion material comprises a plurality of geometric, three-dimensional, microstructures in which each microstructure has a peak, wherein the top surface of said microstructure peak is uniform in height from the base surface of the abrasion material . 1) a housing having a front wall , a rear wall , and opposing side walls joining said front and rear walls; 2) a plurality of razor blades , each blade having a sharpened cutting edge and wherein said blades are disposed in a parallel arrangement extending between said side walls ; 3) an abrasion material disposed adjacent to said front wall and forward of said blades , wherein said abrasion material comprises a plurality of geometric, three-dimensional, microstructures in which each microstructure has a peak, wherein the top surface of said microstructure peak is uniform in height from the base surface of the abrasion material .
A method of producing an antibody specific to a human neonatal Fc receptor (FcRn) in bacterial cells, eukaryotic cells, or mammalian cells, wherein: the antibody specific to the human FcRn comprises a heavy chain (HC) immunoglobulin variable region and a light chain (LC) immunoglobulin variable region, which form an antigen binding site that binds to the human FcRn at both pH 6.0 and pH 7.5 with a dissociation constant (K D ) of no higher than 10 nM, and wherein the six complementary determining regions (CDRs) in the HC and LC variable regions, in combination, are at least 95% identical to: (a) HC CDRs 1-3 of M0161-B04 set forth as SEQ ID NOs: 174-176 respectively, and (b) LC CDRs 1-3 of M0161-B04 set forth as SEQ ID NOs: 171-173 respectively. (a) HC CDRs 1-3 of M0161-B04 set forth as SEQ ID NOs: 174-176 respectively, and (b) LC CDRs 1-3 of M0161-B04 set forth as SEQ ID NOs: 171-173 respectively.
Container device , having: - an ophthalmic injector which has an intraocular lens , - a first container , which is at least partially filled with a fluid , wherein the intraocular lens is surrounded by the fluid , and the first container is provided with a lid which closes the first container in a fluid-tight manner and which is releasably connected to the first container , - a second container , which is coupled to the first container , characterized in that a fluid-tight closure is provided between the first container and the second container , wherein the lid is coupled to the closure by means of a coupling device , and, when the lid is released from the first container , the closure is configured, by means of the coupling device , to pass from a closed position to an open position, such that the fluid can flow from the first container into the second container . - an ophthalmic injector which has an intraocular lens , - a first container , which is at least partially filled with a fluid , wherein the intraocular lens is surrounded by the fluid , and the first container is provided with a lid which closes the first container in a fluid-tight manner and which is releasably connected to the first container , - a second container , which is coupled to the first container , characterized in that a fluid-tight closure is provided between the first container and the second container , wherein the lid is coupled to the closure by means of a coupling device , and, when the lid is released from the first container , the closure is configured, by means of the coupling device , to pass from a closed position to an open position, such that the fluid can flow from the first container into the second container . characterized in that a fluid-tight closure is provided between the first container and the second container , wherein the lid is coupled to the closure by means of a coupling device , and, when the lid is released from the first container , the closure is configured, by means of the coupling device , to pass from a closed position to an open position, such that the fluid can flow from the first container into the second container .
Laundry treatment appliance comprising a drum , at least one first layer having a noise-damping effect being arranged on an outer side of a casing of the drum , characterised in that the at least one first layer is designed as a strip formed from a chemically reactive polymer , the formation from the chemically reactive polymer bringing about an intimate and thus permanent connection between the first layer and the outer side of the casing of the drum.
A method comprising: inserting a first portion (28P2) of a workpiece material between an upper layer and a lower layer of a workpiece support material ; folding a second portion of the workpiece material over and on top of the upper layer of the workpiece support material, the second portion coupled to the first portion; and inserting the workpiece material and the workpiece support material into an electronic cutting machine . inserting a first portion (28P2) of a workpiece material between an upper layer and a lower layer of a workpiece support material ; folding a second portion of the workpiece material over and on top of the upper layer of the workpiece support material, the second portion coupled to the first portion; and inserting the workpiece material and the workpiece support material into an electronic cutting machine .
A mixing apparatus for wet or dry materials, in particular components for manufacturing concrete, comprising: - a stationary cylindrical tank of axis (A) - a first mixing train comprising a drive shaft of axis (B), provided with a fixed pinion centered on the axis (B) of the drive shaft , and at least one mixing blade , said blade traveling around the axis (B) of the drive shaft along a circular path (T3) of diameter (D3), - at least one second mixing train comprising a drive shaft of axis (C), provided with a fixed pinion centered on the axis (C) of the drive shaft , and at least one mixing blade , said blade traveling around the axis (C) of the drive shaft along a circular path (T4) of of diameter (D4), - a rotary plate centered on the axis (A) of the tank , driven in rotation about the axis (A) of the tank , the rotary plate receiving the drive shaft of each of the first and of the at least one second mixing train, said mixing apparatus further comprising: - a first circular toothed ring gear of diameter (D6), centered on the axis (A) of the tank and immobile with respect to the tank , and - a second circular toothed ring gear of diameter (D7), centered on the axis (A) of the tank , such that the diameter (D7) is strictly greater than the diameter (D6), the fixed pinion on the drive shaft of the first mixing train meshing with the first circular ring gear , and the fixed pinion on the drive shaft of the at least one second mixing train meshing with the second circular ring gear , characterized in that the second circular toothed ring gear is immobile with respect to the tank . - a stationary cylindrical tank of axis (A) - a first mixing train comprising a drive shaft of axis (B), provided with a fixed pinion centered on the axis (B) of the drive shaft , and at least one mixing blade , said blade traveling around the axis (B) of the drive shaft along a circular path (T3) of diameter (D3), - at least one second mixing train comprising a drive shaft of axis (C), provided with a fixed pinion centered on the axis (C) of the drive shaft , and at least one mixing blade , said blade traveling around the axis (C) of the drive shaft along a circular path (T4) of of diameter (D4), - a rotary plate centered on the axis (A) of the tank , driven in rotation about the axis (A) of the tank , the rotary plate receiving the drive shaft of each of the first and of the at least one second mixing train, said mixing apparatus further comprising: - a first circular toothed ring gear of diameter (D6), centered on the axis (A) of the tank and immobile with respect to the tank , and - a second circular toothed ring gear of diameter (D7), centered on the axis (A) of the tank , such that the diameter (D7) is strictly greater than the diameter (D6), the fixed pinion on the drive shaft of the first mixing train meshing with the first circular ring gear , and the fixed pinion on the drive shaft of the at least one second mixing train meshing with the second circular ring gear , characterized in that the second circular toothed ring gear is immobile with respect to the tank .
A method for secure management of authorization data and automated processing of instructions in a robotic process automation environment, comprising: - transmitting a certificate data item issued by a certificate providing server to an orchestration server and at least one robot entity; - linking by the orchestration server with at least the one robot entity upon reception of the certificate data item; - transmitting link token data from the certificate providing server to the at least one robot entity; - linking using the link token data the the at least one robot entity with a vault server and sending credential data from the vault server to the at least one robot entity upon request by the respective at least one robot entity; and - using the sent credential data by respectively each robot entity to authenticate and authorize each of the respective at least one robot entity at a number of legacy systems to perform tasks assigned to each of the robot entities by the orchestration server after linking . - transmitting a certificate data item issued by a certificate providing server to an orchestration server and at least one robot entity; - linking by the orchestration server with at least the one robot entity upon reception of the certificate data item; - transmitting link token data from the certificate providing server to the at least one robot entity; - linking using the link token data the the at least one robot entity with a vault server and sending credential data from the vault server to the at least one robot entity upon request by the respective at least one robot entity; and - using the sent credential data by respectively each robot entity to authenticate and authorize each of the respective at least one robot entity at a number of legacy systems to perform tasks assigned to each of the robot entities by the orchestration server after linking .
An inorganic fiber toughened inorganic composite artificial stone panel, comprising a surface layer and a toughened base layer , wherein the surface layer includes materials having the following components in parts by weight: 40-70 parts of quartz sand, 10-30 parts of quartz powder, 20-45 parts of inorganic active powder, 0.5-4 parts of pigment, 0.3-1 parts of water reducing agent and 3-10 parts of water; and wherein the toughened base layer includes materials having the following components in parts by weight: 40-60 parts of inorganic active powder, 45-65 parts of sand, 0.8-1.5 parts of water reducing agent, 6-14 parts of water, 0.4-2 parts of inorganic fiber and 0.8-2.5 parts of toughener, wherein the quartz sand has a fineness modulus of 2.0-3.0, a content of silicon dioxide above 93%, and a hardness of a raw stone above 7 Mohs; the quartz powder has a fineness of 600 mesh or more, a content of silicon dioxide above 93%, and a hardness of a raw stone above 7 Mohs; and the sand is selected from one or more of river sand, manufactured sand and quartz sand. wherein the surface layer includes materials having the following components in parts by weight: 40-70 parts of quartz sand, 10-30 parts of quartz powder, 20-45 parts of inorganic active powder, 0.5-4 parts of pigment, 0.3-1 parts of water reducing agent and 3-10 parts of water; and wherein the toughened base layer includes materials having the following components in parts by weight: 40-60 parts of inorganic active powder, 45-65 parts of sand, 0.8-1.5 parts of water reducing agent, 6-14 parts of water, 0.4-2 parts of inorganic fiber and 0.8-2.5 parts of toughener, wherein the quartz sand has a fineness modulus of 2.0-3.0, a content of silicon dioxide above 93%, and a hardness of a raw stone above 7 Mohs; the quartz powder has a fineness of 600 mesh or more, a content of silicon dioxide above 93%, and a hardness of a raw stone above 7 Mohs; and the sand is selected from one or more of river sand, manufactured sand and quartz sand.
A method for controlling a transmission system , the method comprising: responsive to the occurrence of a condition for the transmission system to exit a sleep state in which certain transmission components of the transmission system are de-activated, triggering the transmission system to transition from the sleep state to an active state in which the certain transmission components are activated and comply with certain component performance requirements, wherein the certain transmission components include an oscillator, and wherein the certain component performance requirements include a frequency error requirement of the oscillator; characterized by controlling the transmission system to transmit, during at least a fraction of a transition period over which the transmission system transitions from the sleep state to the active state , in compliance with relaxed component performance requirements that are reduced with respect to the certain component performance requirements, wherein the relaxed component performance requirements include a relaxed frequency error requirement that permits the oscillator to have larger frequency error than the frequency error requirement. responsive to the occurrence of a condition for the transmission system to exit a sleep state in which certain transmission components of the transmission system are de-activated, triggering the transmission system to transition from the sleep state to an active state in which the certain transmission components are activated and comply with certain component performance requirements, wherein the certain transmission components include an oscillator, and wherein the certain component performance requirements include a frequency error requirement of the oscillator; characterized by controlling the transmission system to transmit, during at least a fraction of a transition period over which the transmission system transitions from the sleep state to the active state , in compliance with relaxed component performance requirements that are reduced with respect to the certain component performance requirements, wherein the relaxed component performance requirements include a relaxed frequency error requirement that permits the oscillator to have larger frequency error than the frequency error requirement.
An electronic component supply device comprising: multiple feeders , each having a tape feeding mechanism configured to feed out a carrier tape, holding multiple electronic components, and an individual control section configured to operate by use of operation software to control the tape feeding mechanism to thereby supply sequentially an electronic component to its own feeding position; a host control section capable of holding update software (SW1, SW2, SW3) to be replaced with at least part of the operation software ; and multiple information transmission sections , being connected between the host control section and the individual control sections of the multiple feeders , so as to transmit information and configured to transmit the update software (SW1, SW2, SW3) from the host control section to the individual control sections independently of one another, characterized in that each one of the multiple information transmission sections has a memory , in which the host control section is configured to write the update software (SW1, SW2, SW3) via a bus , and a communication function circuit configured to transmit the update software (SW1, SW2, SW3) written in the memory to the individual control section of the connected feeder . a host control section capable of holding update software (SW1, SW2, SW3) to be replaced with at least part of the operation software ; and multiple information transmission sections , being connected between the host control section and the individual control sections of the multiple feeders , so as to transmit information and configured to transmit the update software (SW1, SW2, SW3) from the host control section to the individual control sections independently of one another, characterized in that each one of the multiple information transmission sections has a memory , in which the host control section is configured to write the update software (SW1, SW2, SW3) via a bus , and a communication function circuit configured to transmit the update software (SW1, SW2, SW3) written in the memory to the individual control section of the connected feeder .
Nozzle assembly (42, 42', 42", 42"') for a device (40, 40', 40", 40"', 100, 110) for generating an atmospheric plasma jet , - comprising an inlet through which an atmospheric plasma jet can be introduced into the nozzle assembly (42, 42', 42", 42'"), and - comprising a channel (56, 56"') which is connected to the inlet such that a plasma jet introduced into the nozzle assembly (42, 42', 42" 42"') through the inlet is conducted through the channel (56, 56'"), - wherein multiple nozzle openings are provided in the channel wall along the channel (56, 56"'), through which a plasma jet which is conducted through the channel (56, 56'") can exit the nozzle assembly (42, 42', 42", 42"'), characterised in that - the cross section (124', 124", 124"', 140, 142, 144) of the channel (56, 56'") in the region of a nozzle opening is shaped in such a way that a virtual medial plane , which runs in the middle between a virtual first tangent plane of the cross section through the nozzle opening and a virtual second tangent plane of the cross section opposite thereto and parallel to the first tangent plane , divides the cross section into a first cross-sectional area (126', 126", 126"') at the nozzle opening and a second cross-sectional area (128', 128", 128"') opposite to the nozzle opening , and - in that the cross-sectional surface of the first cross-sectional area (126', 126", 126"') differs from the cross-sectional surface of the second cross-sectional area (128', 128", 128"'), preferably by at least 5%, in particular by at least 10%. - comprising an inlet through which an atmospheric plasma jet can be introduced into the nozzle assembly (42, 42', 42", 42'"), and - comprising a channel (56, 56"') which is connected to the inlet such that a plasma jet introduced into the nozzle assembly (42, 42', 42" 42"') through the inlet is conducted through the channel (56, 56'"), - wherein multiple nozzle openings are provided in the channel wall along the channel (56, 56"'), through which a plasma jet which is conducted through the channel (56, 56'") can exit the nozzle assembly (42, 42', 42", 42"'), characterised in that - the cross section (124', 124", 124"', 140, 142, 144) of the channel (56, 56'") in the region of a nozzle opening is shaped in such a way that a virtual medial plane , which runs in the middle between a virtual first tangent plane of the cross section through the nozzle opening and a virtual second tangent plane of the cross section opposite thereto and parallel to the first tangent plane , divides the cross section into a first cross-sectional area (126', 126", 126"') at the nozzle opening and a second cross-sectional area (128', 128", 128"') opposite to the nozzle opening , and - in that the cross-sectional surface of the first cross-sectional area (126', 126", 126"') differs from the cross-sectional surface of the second cross-sectional area (128', 128", 128"'), preferably by at least 5%, in particular by at least 10%.
A fluoroelastomer composition [composition (C)] comprising: - at least one fluoroelastomer [fluoroelastomer (A)] comprising from 0.1 to 10.0 % moles, with respect to total moles of recurring units of fluoroelastomer (A), of recurring units derived from at least one of cure-site containing monomers having at least a nitrile group [monomer (CS-N)]; - at least one curing agent [agent (A)]; - at least one bromine-containing marker [marker (B)], selected from the group consisting of compounds comprising at least one Br atom and at least one group selected from: (B-1) aromatic ortho-diamine groups; (B-2) aromatic ortho amino-(thio)phenolic-type groups; (B-3) amidoxime/amidine/amidrazone groups of formula: wherein R N1 is -OH or -H, and R N2 is H or NH 2 , and (B-4) imidoylamidine groups of formula: (B-5) azide groups of formula: -(SO 2 ) xn -N 3 , whereas xn is 0 or 1; (B-6) carbazide groups of formula -J N -C(O)-NH-NH 2 , wherein J N is either a bond, an ester oxygen -O- group, or an amine -NH- group. - at least one fluoroelastomer [fluoroelastomer (A)] comprising from 0.1 to 10.0 % moles, with respect to total moles of recurring units of fluoroelastomer (A), of recurring units derived from at least one of cure-site containing monomers having at least a nitrile group [monomer (CS-N)]; - at least one curing agent [agent (A)]; - at least one bromine-containing marker [marker (B)], selected from the group consisting of compounds comprising at least one Br atom and at least one group selected from: (B-1) aromatic ortho-diamine groups; (B-2) aromatic ortho amino-(thio)phenolic-type groups; (B-3) amidoxime/amidine/amidrazone groups of formula: wherein R N1 is -OH or -H, and R N2 is H or NH 2 , and (B-4) imidoylamidine groups of formula: (B-5) azide groups of formula: -(SO 2 ) xn -N 3 , whereas xn is 0 or 1; (B-6) carbazide groups of formula -J N -C(O)-NH-NH 2 , wherein J N is either a bond, an ester oxygen -O- group, or an amine -NH- group. (B-1) aromatic ortho-diamine groups; (B-2) aromatic ortho amino-(thio)phenolic-type groups; (B-3) amidoxime/amidine/amidrazone groups of formula: wherein R N1 is -OH or -H, and R N2 is H or NH 2 , and (B-4) imidoylamidine groups of formula: (B-5) azide groups of formula: -(SO 2 ) xn -N 3 , whereas xn is 0 or 1; (B-6) carbazide groups of formula -J N -C(O)-NH-NH 2 , wherein J N is either a bond, an ester oxygen -O- group, or an amine -NH- group.