mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing a plurality of services in a datacenter comprising a router , a plurality of host computers, and a plurality of service nodes , the method comprising: at the router that operates on a device that is outside of a first host computer that executes a first machine that is a source or destination of a received data message: performing, for the data message received for routing, a service classification operation to determine that a particular chain of a plurality of service operations has to be performed on the data message; selecting, for the particular service chain, a service path to provide the plurality of services, the selected service path implemented by a set of service nodes ; forwarding the data message along the selected service path to have the plurality of services performed, said forwarding comprising using a logical service forwarding plane implemented by two or more forwarding elements to forward the data message to two or more service nodes of the selected service path that operate outside of the router and the first host computer; and performing a next hop operation on the data message to forward the data message to the data message's destination after receiving the data message from a last service node, in the selected service path, that performs a last service operation. performing, for the data message received for routing, a service classification operation to determine that a particular chain of a plurality of service operations has to be performed on the data message; selecting, for the particular service chain, a service path to provide the plurality of services, the selected service path implemented by a set of service nodes ; forwarding the data message along the selected service path to have the plurality of services performed, said forwarding comprising using a logical service forwarding plane implemented by two or more forwarding elements to forward the data message to two or more service nodes of the selected service path that operate outside of the router and the first host computer; and performing a next hop operation on the data message to forward the data message to the data message's destination after receiving the data message from a last service node, in the selected service path, that performs a last service operation.
Use of polyether-modified short-chain siloxanes of formula (I) M a D b D' c Formula (I) with M = R 1 3 SiO 1/2 , D = R 1 2 SiO 2/2 , D' = R 1 R 2 SiO 2/2 , where a is 2, b is 0 to 0.5, c is 1 to 3, R 1 is independently hydrocarbyl having 1 to 8 carbon atoms, R 2 is independently a polyether radical of the formula (II) -R 3 O[CH 2 CH 2 O] m [CH 2 CH(CH 3 )O] n R 5 Formula (II) where m = 2 to 30, n = 0 to 10, but with the provisos that: R 3 are independently divalent hydrocarbyl radicals having 2 to 8 carbon atoms, R 5 is independently a hydrocarbyl radical having 1 to 16 carbon atoms or hydrogen, and, if n is greater than 0, m/n = is 1 to 30 and for all values of n claimed, if c is greater than or equal to 1.2, c ∗ (m+n) = 12 to 50, in the root area for increasing agronomic yield, wherein the application is free from herbicides, fungicides, nematicides and insecticides. a is 2, b is 0 to 0.5, c is 1 to 3, R 1 is independently hydrocarbyl having 1 to 8 carbon atoms, R 2 is independently a polyether radical of the formula (II) m = 2 to 30, n = 0 to 10, but with the provisos that: R 3 are independently divalent hydrocarbyl radicals having 2 to 8 carbon atoms, R 5 is independently a hydrocarbyl radical having 1 to 16 carbon atoms or hydrogen, and, if n is greater than 0, R 3 are independently divalent hydrocarbyl radicals having 2 to 8 carbon atoms, R 5 is independently a hydrocarbyl radical having 1 to 16 carbon atoms or hydrogen, and, if n is greater than 0, m/n = is 1 to 30 and for all values of n claimed, if c is greater than or equal to 1.2, c ∗ (m+n) = 12 to 50, in the root area for increasing agronomic yield, wherein the application is free from herbicides, fungicides, nematicides and insecticides.
A method for conducting and analyzing a process reaction, the method comprising: receiving, in a reaction chamber , a reactant solution; conducting a process reaction within the reaction chamber , wherein the reactant solution comprises a reactant in the process reaction, by receiving, in the reaction chamber, a gas from a gas inlet, which is introduced to the reaction chamber such that it provides mixing of the reactant solution; facilitating movement of a first portion of a reaction mixture from the reaction chamber to a detection chamber , wherein the reaction mixture is a mixture within a reaction chamber at any point during the reaction period of said process reaction, the reaction mixture being directed to flow into the detection chamber to precondition a surface inside the detection chamber ; removing a pre-conditioning mixture from the detection chamber , wherein the pre-conditioning mixture comprises a remainder of the first portion of the reaction mixture after an adsorption phase within the detection chamber ; providing a second portion reaction mixture to the detection chamber and determining a concentration of a chemical within the reaction mixture; and wherein the step of facilitating movement of the first portion of the reaction mixture is performed in parallel to conducting the process reaction within the reaction chamber , and the step of removing a pre-conditioning solution from the detection chamber is performed in parallel to conducting the process reaction within the reaction chamber . receiving, in a reaction chamber , a reactant solution; conducting a process reaction within the reaction chamber , wherein the reactant solution comprises a reactant in the process reaction, by receiving, in the reaction chamber, a gas from a gas inlet, which is introduced to the reaction chamber such that it provides mixing of the reactant solution; facilitating movement of a first portion of a reaction mixture from the reaction chamber to a detection chamber , wherein the reaction mixture is a mixture within a reaction chamber at any point during the reaction period of said process reaction, the reaction mixture being directed to flow into the detection chamber to precondition a surface inside the detection chamber ; removing a pre-conditioning mixture from the detection chamber , wherein the pre-conditioning mixture comprises a remainder of the first portion of the reaction mixture after an adsorption phase within the detection chamber ; providing a second portion reaction mixture to the detection chamber and determining a concentration of a chemical within the reaction mixture; and wherein the step of facilitating movement of the first portion of the reaction mixture is performed in parallel to conducting the process reaction within the reaction chamber , and the step of removing a pre-conditioning solution from the detection chamber is performed in parallel to conducting the process reaction within the reaction chamber .
A motion assistance apparatus , comprising: a proximal support configured to support a proximal part of a user; a first drive link and a second drive link ; a support link comprising a support body and a support joint ; the support joint being rotatably connected to the second drive link ; the support body connecting the first drive link and the support joint ; a distal support connected to the support body configured to support a distal part of a user; and a torque providing device configured to provide a torque to rotate the support joint ; characterized in that the first drive link is configured to perform a translational motion with respect to the proximal support at a first velocity and the second drive link configured to perform a translational motion with respect to the proximal support at a second velocity, the first velocity being different from the second velocity, such that the support body simultaneously performs a translational motion and a rotational motion with respect to the proximal support , and the support link rotates about a remote center of motion (RCM), the RCM being in a vicinity of a joint between the proximal part and distal part of the user when the user wears the motion assistance apparatus . a proximal support configured to support a proximal part of a user; a first drive link and a second drive link ; a support link comprising a support body and a support joint ; the support joint being rotatably connected to the second drive link ; the support body connecting the first drive link and the support joint ; a distal support connected to the support body configured to support a distal part of a user; and a torque providing device configured to provide a torque to rotate the support joint ; characterized in that the first drive link is configured to perform a translational motion with respect to the proximal support at a first velocity and the second drive link configured to perform a translational motion with respect to the proximal support at a second velocity, the first velocity being different from the second velocity, such that the support body simultaneously performs a translational motion and a rotational motion with respect to the proximal support , and the support link rotates about a remote center of motion (RCM), the RCM being in a vicinity of a joint between the proximal part and distal part of the user when the user wears the motion assistance apparatus .
A complex of a cellulose fiber and inorganic particles, wherein 15 % or more of the surface of the cellulose fiber is covered by the inorganic particles and wherein the inorganic particles are at least partially a metal salt of silicic acid, barium or aluminum or metal particles containing titanium, copper or zinc.
A polymer composition comprising a (meth) acrylic polymer (P1), a multi stage polymer in form of polymer particles comprising a) one stage (A) comprising a polymer (A1) having a glass transition temperature of less than 10°C as measured according to the method in the description, b), one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C, as measured according to the method in the description, wherein the multistage polymer makes up at least 40wt% of the polymer composition and the polymer particles have weight average particle size of the polymer is between 25nm and 600nm as measured according to the method in the description and characterized that the (meth) acrylic polymer (P1) has a mass average molecular weight Mw between 10 OOOg/mol and 60 OOOg/mol, as measured according to the method in the description, and characterized in that the stage (A) is the first stage and that stage (B) comprising polymer (B1) is grafted on stage (A) comprising polymer (A1). a (meth) acrylic polymer (P1), a multi stage polymer in form of polymer particles comprising a) one stage (A) comprising a polymer (A1) having a glass transition temperature of less than 10°C as measured according to the method in the description, b), one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C, as measured according to the method in the description, a) one stage (A) comprising a polymer (A1) having a glass transition temperature of less than 10°C as measured according to the method in the description, b), one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C, as measured according to the method in the description,
Presentation case for an electromechanical watch provided with a stepping motor for driving hands of the watch , the presentation case comprising: - a box comprising a support for receiving the watch, the presentation case being configured to contain a predefined type and/or shape of electromechanical watch; - a system for detecting the position of the watch hands ; - means for resetting the watch, connected to the hand position detection system , and configured to reset the watch on the basis of information received from the hand position detection system , when the watch is placed on the receiving support ; wherein the presentation case is configured to contain a predefined type and/or shape of electromechanical watch, and wherein the resetting means include a stepping motor drive means specific to the type of electromechanical watch, characterized in that the drive means is arranged inside the presentation case so as to face the stepping motor when the watch is placed on the receiving support , and in that the drive means is also configured to cause a direct rotation of a rotor of a stepping motor by inductive coupling. - a box comprising a support for receiving the watch, the presentation case being configured to contain a predefined type and/or shape of electromechanical watch; - a system for detecting the position of the watch hands ; - means for resetting the watch, connected to the hand position detection system , and configured to reset the watch on the basis of information received from the hand position detection system , when the watch is placed on the receiving support ;
A system comprising: (a) a capacitive micromachined ultrasonic transducer CMUT ; (b) a first alternating current voltage source ; (c) a first inductor electrically coupled to the first voltage source ; (d) a second inductor electrically coupled to the CMUT , wherein the second inductor is physically electrically decoupled from, and configured to be wirelessly coupled to, the first inductor ; (e) a first antenna electrically coupled to the first inductor ; and (f) a second antenna ; the system characterized in that the second antenna is electrically coupled to the second inductor , wherein first and second inductors are wirelessly coupled via the first and second antennas . (a) a capacitive micromachined ultrasonic transducer CMUT ; (b) a first alternating current voltage source ; (c) a first inductor electrically coupled to the first voltage source ; (d) a second inductor electrically coupled to the CMUT , wherein the second inductor is physically electrically decoupled from, and configured to be wirelessly coupled to, the first inductor ; (e) a first antenna electrically coupled to the first inductor ; and (f) a second antenna ;
A latex paint composition comprising a solvent, at least one first polymeric binder, optional pigment particles, and a plurality of discrete opacifying cluster particles, each discrete opacifying cluster particle includes a second polymeric binder coalescing cluster components into a generally homogeneous particle, wherein the second polymeric binder is a latex binder and wherein the second polymeric binder is the same as or different from the at least one first polymeric binder; the cluster components include discrete polymeric particles each defining a closed void volume therein, a plurality of optional inorganic pigment particles, and a plurality of extender pigment particles; and a porosity of the second polymeric binder defining a binder void volume. a solvent, at least one first polymeric binder, optional pigment particles, and a plurality of discrete opacifying cluster particles, each discrete opacifying cluster particle includes a second polymeric binder coalescing cluster components into a generally homogeneous particle, wherein the second polymeric binder is a latex binder and wherein the second polymeric binder is the same as or different from the at least one first polymeric binder; the cluster components include discrete polymeric particles each defining a closed void volume therein, a plurality of optional inorganic pigment particles, and a plurality of extender pigment particles; and a porosity of the second polymeric binder defining a binder void volume.
Artificial eye lens comprising an optical part , which has a first optical side as viewed in a direction of an optical principal axis (A) of the artificial eye lens and an opposite second optical side , and has a haptic arrangement , characterized in that a structure with at least one depression is formed in a surround of the artificial eye lens that surrounds the optical part at least in certain areas and that differs from the haptic arrangement , wherein the structure is formed as a micro-perforation with a multiplicity of perforation zones and at least some perforation zones are filled at least in certain areas with at least one medicament for the purposes of producing a medicament repository.
A battery, comprising a housing and a battery cell disposed in the housing; characterized in that : the battery cell comprises electrodes and tabs , and each of the electrodes is integrally connected with a tab , characterized in that each of the electrodes comprises a current collector and an active material layer, and the current collector comprises a coating zone coated with the active material layer and an empty foil zone not coated with the active material layer, and an end of the tab is welded to the empty foil zone by a laser welding process; a surface of the empty foil zone facing away from the tab has a plurality of welding zones which are arranged at intervals, and each of the welding zones comprises at least one line-shaped welding mark ; and a surface of the tab facing away from the empty foil zone has no welding mark; wherein a ratio of the height of the line-shaped welding mark to a width of the line-shaped welding mark is less than 1. the battery cell comprises electrodes and tabs , and each of the electrodes is integrally connected with a tab , characterized in that each of the electrodes comprises a current collector and an active material layer, and the current collector comprises a coating zone coated with the active material layer and an empty foil zone not coated with the active material layer, and an end of the tab is welded to the empty foil zone by a laser welding process; a surface of the empty foil zone facing away from the tab has a plurality of welding zones which are arranged at intervals, and each of the welding zones comprises at least one line-shaped welding mark ; and a surface of the tab facing away from the empty foil zone has no welding mark; wherein a ratio of the height of the line-shaped welding mark to a width of the line-shaped welding mark is less than 1.
An interference filter comprising: a layers stack comprising a plurality of layers of at least: layers of amorphous hydrogenated silicon with added nitrogen (a-Si:H,N), the a-Si:H,N layers having a refractive index in the range 3.3 to 3.5 inclusive, wherein the a-Si:H,N has an atomic concentration of hydrogen between 2% and 8% and an atomic concentration of nitrogen between 3% and 7%, and layers of one or more dielectric materials having a refractive index lower than the refractive index of the amorphous hydrogenated silicon including layers of a dielectric material having a refractive index in the range 1.9 to 2.7 inclusive. layers of amorphous hydrogenated silicon with added nitrogen (a-Si:H,N), the a-Si:H,N layers having a refractive index in the range 3.3 to 3.5 inclusive, wherein the a-Si:H,N has an atomic concentration of hydrogen between 2% and 8% and an atomic concentration of nitrogen between 3% and 7%, and layers of one or more dielectric materials having a refractive index lower than the refractive index of the amorphous hydrogenated silicon including layers of a dielectric material having a refractive index in the range 1.9 to 2.7 inclusive.
A flux comprising: a rosin; a solvent; a thixotropic agent; and an activator, wherein the thixotropic agent includes a polyamide (PA2), the PA2 is a condensate of an aliphatic carboxylic acid, a hydroxy group-containing aliphatic carboxylic acid, and an aliphatic amine having 3 to 10 carbon atoms, the aliphatic carboxylic acid includes an aliphatic dicarboxylic acid having 11 to 20 carbon atoms, the amount of the PA2 is 1% by mass or more and 20% by mass or less with respect to a total mass of the flux, regarding an endothermic amount calculated from a peak area of a differential scanning calorific curve obtained by differential scanning calorimetry, in the PA2, a ratio of an endothermic amount in a range of 50°C or higher and 190°C or lower is 90% or more with respect to a total endothermic amount in a range of 50°C or higher and 200°C or lower, and the endothermic peak of the PA2 is measured by setting a temperature raising rate to 20°C/min and raising a temperature of about 7 mg of the PA2 from 30°C to 220°C under a nitrogen atmosphere. a rosin; a solvent; a thixotropic agent; and an activator, wherein the thixotropic agent includes a polyamide (PA2), the PA2 is a condensate of an aliphatic carboxylic acid, a hydroxy group-containing aliphatic carboxylic acid, and an aliphatic amine having 3 to 10 carbon atoms, the aliphatic carboxylic acid includes an aliphatic dicarboxylic acid having 11 to 20 carbon atoms, the amount of the PA2 is 1% by mass or more and 20% by mass or less with respect to a total mass of the flux, regarding an endothermic amount calculated from a peak area of a differential scanning calorific curve obtained by differential scanning calorimetry, in the PA2, a ratio of an endothermic amount in a range of 50°C or higher and 190°C or lower is 90% or more with respect to a total endothermic amount in a range of 50°C or higher and 200°C or lower, and the endothermic peak of the PA2 is measured by setting a temperature raising rate to 20°C/min and raising a temperature of about 7 mg of the PA2 from 30°C to 220°C under a nitrogen atmosphere.
A method of X2-messaging in a Cloud Radio Access Network, C-RAN, the method comprising: receiving, by a control unit in the C-RAN , a request from a first virtual eNodeB, eNB, associated with a source eNB to establish a X2 interface with each virtual eNB associated with a set of neighbor eNBs , wherein the virtual eNB is configured to perform at least a portion of base station functioning of the source eNB ; selecting, by the control unit , a second virtual eNB associated with a target eNB from the virtual eNBs associated with the set of neighbor eNBs , wherein virtual eNB is configured to perform base station processing associated with the target eNB ; determining, by the control unit , whether the first virtual eNB and the second virtual eNB are co-located and/or running on same datacenter in the C-RAN ; causing transmission, by the control unit , of at least one X2 message between the first virtual eNB and the second virtual eNB based on eNB information accessed from a shared storage when the first virtual eNB and the second virtual eNB are co-located on the datacenter ; and performing at least one X2 interface function on at least one of the source eNB and the target eNB based on the at least one X2 message transmitted between the first virtual eNB and the second virtual eNB . receiving, by a control unit in the C-RAN , a request from a first virtual eNodeB, eNB, associated with a source eNB to establish a X2 interface with each virtual eNB associated with a set of neighbor eNBs , wherein the virtual eNB is configured to perform at least a portion of base station functioning of the source eNB ; selecting, by the control unit , a second virtual eNB associated with a target eNB from the virtual eNBs associated with the set of neighbor eNBs , wherein virtual eNB is configured to perform base station processing associated with the target eNB ; determining, by the control unit , whether the first virtual eNB and the second virtual eNB are co-located and/or running on same datacenter in the C-RAN ; causing transmission, by the control unit , of at least one X2 message between the first virtual eNB and the second virtual eNB based on eNB information accessed from a shared storage when the first virtual eNB and the second virtual eNB are co-located on the datacenter ; and performing at least one X2 interface function on at least one of the source eNB and the target eNB based on the at least one X2 message transmitted between the first virtual eNB and the second virtual eNB .