mhurhangee/patent-ind-claim-en huggingface dataset:
A method for establishing connection between a detection device and a second device , wherein the detection device is coupled with a remote-sensing motion detection apparatus , the method comprising: The detection device acquiring a first motion signature information of a motion object through the remote-sensing motion detection apparatus; The detection device generating a first motion signature by encoding a motion trend of the first motion signature information, wherein said motion trend includes the speed, acceleration and direction trends, and wherein said encoding comprises differentially encoding said motion trend values; and The detection device establishing a connection with the second device when the first motion signature matches with a second motion signature of the motion object acquired by the second device . The detection device acquiring a first motion signature information of a motion object through the remote-sensing motion detection apparatus; The detection device generating a first motion signature by encoding a motion trend of the first motion signature information, wherein said motion trend includes the speed, acceleration and direction trends, and wherein said encoding comprises differentially encoding said motion trend values; and The detection device establishing a connection with the second device when the first motion signature matches with a second motion signature of the motion object acquired by the second device .
A softening method for a high-strength Q & P steel hot-rolled coil, characterized in : after heating a Q & P steel ingot, subjecting it to rough rolling, finish rolling, laminar cooling and coiling to obtain a hot-rolled coil; after unloading the coil, covering the coil on-line with an insulating enclosure and moving it into a steel coil warehouse along with a transport chain; after a specified period of insulating time, removing the coil from the insulating enclosure, and cooling it to room temperature in air, wherein the coiling is performed at a temperature of 400 - 600 °C; said covering on-line with an insulating enclosure means each hot-rolled coil is individually covered with an independent, closed insulating enclosure unit within 60 minutes after unloading; the insulating time of the steel coil in the insulating enclosure is 1-24 hours; wherein the steel coil is cooled at a cooling rate of ≤15 °C/hour in the insulating enclosure; wherein the alloying elements of the Q & P steel include C, Si and Mn, wherein the C content is greater than 0.15wt%, the Si content is greater than 1.0wt%, and the Mn content is greater than 1.5wt%; wherein the ingot is heated at a temperature of ≥1150 °C, and a soaking time is ≥60 minutes, and the rough rolling and finish rolling are performed in a temperature zone for complete austenization, an overall hot rolling reduction rate is ≥90%, and a final rolling temperature is 800-1000 °C. after heating a Q & P steel ingot, subjecting it to rough rolling, finish rolling, laminar cooling and coiling to obtain a hot-rolled coil; after unloading the coil, covering the coil on-line with an insulating enclosure and moving it into a steel coil warehouse along with a transport chain; after a specified period of insulating time, removing the coil from the insulating enclosure, and cooling it to room temperature in air, wherein the coiling is performed at a temperature of 400 - 600 °C; said covering on-line with an insulating enclosure means each hot-rolled coil is individually covered with an independent, closed insulating enclosure unit within 60 minutes after unloading; the insulating time of the steel coil in the insulating enclosure is 1-24 hours; wherein the steel coil is cooled at a cooling rate of ≤15 °C/hour in the insulating enclosure; wherein the alloying elements of the Q & P steel include C, Si and Mn, wherein the C content is greater than 0.15wt%, the Si content is greater than 1.0wt%, and the Mn content is greater than 1.5wt%; wherein the ingot is heated at a temperature of ≥1150 °C, and a soaking time is ≥60 minutes, and the rough rolling and finish rolling are performed in a temperature zone for complete austenization, an overall hot rolling reduction rate is ≥90%, and a final rolling temperature is 800-1000 °C.
A method for wireless communication at a user equipment, UE, comprising: attaching , via a first radio access technology, RAT, to a first base station in a network; the method being further characterised by : receiving , from a core network node of the network, an indication of inter-RAT connected-mode mobility between the first RAT and a second RAT, wherein the indication comprises a list of one or more geographic areas in which the UE is to initiate the inter-RAT mobility procedure to transition from the first RAT to the second RAT; and determining whether to initiate an inter-RAT mobility procedure based at least in part on entering a geographic area identified by the indication subsequent to attaching to the first base station. attaching , via a first radio access technology, RAT, to a first base station in a network; the method being further characterised by : receiving , from a core network node of the network, an indication of inter-RAT connected-mode mobility between the first RAT and a second RAT, wherein the indication comprises a list of one or more geographic areas in which the UE is to initiate the inter-RAT mobility procedure to transition from the first RAT to the second RAT; and determining whether to initiate an inter-RAT mobility procedure based at least in part on entering a geographic area identified by the indication subsequent to attaching to the first base station. receiving , from a core network node of the network, an indication of inter-RAT connected-mode mobility between the first RAT and a second RAT, wherein the indication comprises a list of one or more geographic areas in which the UE is to initiate the inter-RAT mobility procedure to transition from the first RAT to the second RAT; and determining whether to initiate an inter-RAT mobility procedure based at least in part on entering a geographic area identified by the indication subsequent to attaching to the first base station.
A probe handle accessory for use with a probe comprising: an outer housing having a first hollow interior and an outer surface for being gripped by a user; an inner sleeve that is disposed within the first hollow interior and moves axially therein, the inner sleeve having a second hollow interior that is configured to receive the probe and the inner sleeve being configured for securely holding the probe in place within the second hollow interior; and at least one constant force spring that is coupled to the outer housing and to the inner sleeve and configured to apply a force to the inner sleeve in a distal direction for maintaining the probe in position against a surface of interest during examination thereof, while permitting axial movement of the inner sleeve within the outer housing , wherein the at least one constant force spring is configured to apply an at least substantially fixed magnitude of force to the inner sleeve in the distal direction over a range of axial positions of the inner sleeve within the outer housing . an outer housing having a first hollow interior and an outer surface for being gripped by a user; an inner sleeve that is disposed within the first hollow interior and moves axially therein, the inner sleeve having a second hollow interior that is configured to receive the probe and the inner sleeve being configured for securely holding the probe in place within the second hollow interior; and at least one constant force spring that is coupled to the outer housing and to the inner sleeve and configured to apply a force to the inner sleeve in a distal direction for maintaining the probe in position against a surface of interest during examination thereof, while permitting axial movement of the inner sleeve within the outer housing , wherein the at least one constant force spring is configured to apply an at least substantially fixed magnitude of force to the inner sleeve in the distal direction over a range of axial positions of the inner sleeve within the outer housing .
An intraocular injection system for injecting a substance into an eye globe (E) of an animal or human eye, the system comprising: - an injection device with a piercing member for injection of the substance into the eye globe (E), the intraocular injection system providing an automated piercing of the eye globe (E) by the piercing member , - a robotic manipulator carrying the injection device , the robotic manipulator adapted and configured to move the injection device to a pre-injection position, and - a detection device adapted and configured to detect a position of a patch (P) placed onto the eye globe (E) and to control the robotic manipulator to move the injection device to the pre-injection position, the pre-injection position being based upon the detected position of the patch (P) on the eye globe (E). - an injection device with a piercing member for injection of the substance into the eye globe (E), the intraocular injection system providing an automated piercing of the eye globe (E) by the piercing member , - a robotic manipulator carrying the injection device , the robotic manipulator adapted and configured to move the injection device to a pre-injection position, and - a detection device adapted and configured to detect a position of a patch (P) placed onto the eye globe (E) and to control the robotic manipulator to move the injection device to the pre-injection position, the pre-injection position being based upon the detected position of the patch (P) on the eye globe (E).
A system, comprising: a network interface virtualization coordinator , and one or more servers or data storage devices configured to implement virtualized resources ; wherein the network interface virtualization coordinator is configured to: receive a request specifying one or more IP addresses for a virtual network interface for a virtualized compute instance implemented via the one or more servers or data storage devices; attach the virtual network interface to the compute instance; and configure routing tables to enable network traffic directed at the one or more IP addresses to be received at the compute instance attached to the virtual network interface. a network interface virtualization coordinator , and one or more servers or data storage devices configured to implement virtualized resources ; wherein the network interface virtualization coordinator is configured to: receive a request specifying one or more IP addresses for a virtual network interface for a virtualized compute instance implemented via the one or more servers or data storage devices; attach the virtual network interface to the compute instance; and configure routing tables to enable network traffic directed at the one or more IP addresses to be received at the compute instance attached to the virtual network interface. receive a request specifying one or more IP addresses for a virtual network interface for a virtualized compute instance implemented via the one or more servers or data storage devices; attach the virtual network interface to the compute instance; and configure routing tables to enable network traffic directed at the one or more IP addresses to be received at the compute instance attached to the virtual network interface.
A composition comprising a saccharide fatty acid ester (SFAE) bound cellulose-based material, wherein said SFAE bound cellulose-based material is a film or paper, said SFAE is present at a sufficient concentration to cause the bound cellulose-based material to exhibit a water contact angle of equal to or greater than 90°, wherein said water contact angle is effected in the absence of any secondary hydrophobes, wherein said water contact angle is determined by an optical tensiometer, and wherein said SFAE is present at a concentration of at least 0.025% (wt/wt) of a total amount of cellulose fiber present in said film or paper.
Compound of the formula (I): wherein R 1 , R 4 , R 5 , R 8 , R 9 , R 11 , R 12 , R 14 are selected from: -H, - (C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 ) -alkyl, halogen, -NH 2 , -NO 2 ; R 2 , R 3 , R 6 , R 7 are selected from: -H, -O-(C 1 -C 12 )-alkyl, - NH 2 , -NO 2 ; R 10 , R 13 are -NO 2 . R 1 , R 4 , R 5 , R 8 , R 9 , R 11 , R 12 , R 14 are selected from: -H, - (C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 ) -alkyl, halogen, -NH 2 , -NO 2 ; R 2 , R 3 , R 6 , R 7 are selected from: -H, -O-(C 1 -C 12 )-alkyl, - NH 2 , -NO 2 ; R 10 , R 13 are -NO 2 .
Method for producing different batches of a yogurt from fresh milk having a protein content (E) that is variable between a minimum (E min ) and a maximum protein content (E max ), wherein the method, for each batch of said yogurt, comprises the steps of: - providing a batch of fresh milk; - determining the protein content (E) of the milk in said batch; - adding a predetermined amount of protein (P) to the milk in said batch by mixing at least one milk protein containing powder into the milk for forming a mixture; - pasteurizing and homogenizing said mixture; - inoculating the pasteurized mixture with lactic acid bacteria, including at least Lactobacillus delbrueckii ssp. Bulgaricus and Streptococcus thermophilus; and - fermenting the mixture with said lactic acid bacteria for forming said batch of yogurt, characterized in that for a base milk having a protein content (E base ) that is at most equal to said minimum protein content (E min ), an amount of protein (P base ) is determined to be added to said base milk through said milk protein containing powder for obtaining said yogurt, and that for each batch of said yogurt, said predetermined amount of protein (P) is determined based on the following formula: 0.9 P base − E excess − 2 E excess 2 < P < 1.1 P base − E excess − 2 E excess 2 with E excess = E − E base , where: P = said predetermined amount of protein expressed in g/100 ml of milk; E = the protein content of the milk in said batch expressed in g/100 ml of milk; E base = the protein content of said base milk, expressed in g/100 ml of milk; and P base = said amount of protein, expressed in g protein/100 ml of milk, to be added to said base milk through said milk protein containing powder for obtaining said yogurt, with the optional condition that when P according to said formula is lower than a predetermined minimal amount of protein (P min ), then P should be equal to said predetermined minimal amount of protein (P min ). - providing a batch of fresh milk; - determining the protein content (E) of the milk in said batch; - adding a predetermined amount of protein (P) to the milk in said batch by mixing at least one milk protein containing powder into the milk for forming a mixture; - pasteurizing and homogenizing said mixture; - inoculating the pasteurized mixture with lactic acid bacteria, including at least Lactobacillus delbrueckii ssp. Bulgaricus and Streptococcus thermophilus; and - fermenting the mixture with said lactic acid bacteria for forming said batch of yogurt, P = said predetermined amount of protein expressed in g/100 ml of milk; E = the protein content of the milk in said batch expressed in g/100 ml of milk; E base = the protein content of said base milk, expressed in g/100 ml of milk; and P base = said amount of protein, expressed in g protein/100 ml of milk, to be added to said base milk through said milk protein containing powder for obtaining said yogurt, with the optional condition that when P according to said formula is lower than a predetermined minimal amount of protein (P min ), then P should be equal to said predetermined minimal amount of protein (P min ).
An apparatus comprising: a processor; and a memory on which is stored machine readable instructions that when executed by the processor are to cause the processor to: access a reduced resolution three-dimensional, 3D, model file of an object to be built in a build bed of a 3D printing system , the reduced resolution 3D model file comprising a reduced resolution file of a first resolution 3D model file of the object; determine a packing arrangement for the object and a plurality of other objects to be built in the build bed through use of the reduced resolution 3D model file ; output the determined packing arrangement to a client device , wherein a user is to at least one of modify or approve the determined packing arrangement; and wherein, when the determined packing arrangement is modified, the apparatus is to receive the modified version from the client device ; and output the determined packing arrangement or, when the determined packing arrangement is modified, the modified version of the packing arrangement, for the 3D printing system to print the object and the other objects. a processor; and a memory on which is stored machine readable instructions that when executed by the processor are to cause the processor to: access a reduced resolution three-dimensional, 3D, model file of an object to be built in a build bed of a 3D printing system , the reduced resolution 3D model file comprising a reduced resolution file of a first resolution 3D model file of the object; determine a packing arrangement for the object and a plurality of other objects to be built in the build bed through use of the reduced resolution 3D model file ; output the determined packing arrangement to a client device , wherein a user is to at least one of modify or approve the determined packing arrangement; and wherein, when the determined packing arrangement is modified, the apparatus is to receive the modified version from the client device ; and output the determined packing arrangement or, when the determined packing arrangement is modified, the modified version of the packing arrangement, for the 3D printing system to print the object and the other objects. access a reduced resolution three-dimensional, 3D, model file of an object to be built in a build bed of a 3D printing system , the reduced resolution 3D model file comprising a reduced resolution file of a first resolution 3D model file of the object; determine a packing arrangement for the object and a plurality of other objects to be built in the build bed through use of the reduced resolution 3D model file ; output the determined packing arrangement to a client device , wherein a user is to at least one of modify or approve the determined packing arrangement; and wherein, when the determined packing arrangement is modified, the apparatus is to receive the modified version from the client device ; and output the determined packing arrangement or, when the determined packing arrangement is modified, the modified version of the packing arrangement, for the 3D printing system to print the object and the other objects.
A rechargeable lithium ion battery comprising a positive electrode, a negative electrode and an electrolyte, the positive electrode comprising a lithium nickel manganese cobalt oxide-based powder with particles comprising a core and a surface layer, the core having a layered crystal structure comprising the elements Li, M and oxygen, wherein M has the formula M=(Ni z (Ni 1⁄2 Mn 1⁄2 ) y Co x ) 1-k A k , with 0.13≤x≤0.30, 0.20≤z<0.55, x+y+z=1 and 0<k≤0.1, wherein A is at least one dopant and comprises Al, the lithium nickel manganese cobalt oxide-based powder having a molar ratio 0.95≤Li:M≤1.10, wherein the surface layer consists of a mixture of elements of the core Li, M and O, and alumina, and further comprises LiF, wherein the electrolyte comprises the additive lithium difluorophosphate.
A glass construction for balustrade glazing and/or railing glazing or glass supports having a composite element designed as a glass laminate consisting of at least two glass panes connected by an adhesive plastic interlayer , wherein at least one edge of the composite element exhibits an edge protector which is at least partially connected to the respective end faces of the at least two glass panes of the glass laminate such that the interlayer is protected from the effects of moisture, wherein the edge protector comprises a glass strip at least partially connected to the at least one edge of the composite element by means of a sealant , characterized in that the edge protector is formed from a crystal-clear material and is at least partially connected to the at least one edge of the composite element by a preferably crystal-clear sealant such that the respective end faces of the at least two glass panes of the glass laminate and the end face of the interlayer are wetted and in particular enclosed by the preferably crystal-clear sealant , and that the preferably crystal-clear sealant is at least in part or partially formed by an area of the adhesive interlayer which projects over the at least one edge of the composite element. the edge protector is formed from a crystal-clear material and is at least partially connected to the at least one edge of the composite element by a preferably crystal-clear sealant such that the respective end faces of the at least two glass panes of the glass laminate and the end face of the interlayer are wetted and in particular enclosed by the preferably crystal-clear sealant , and that the preferably crystal-clear sealant is at least in part or partially formed by an area of the adhesive interlayer which projects over the at least one edge of the composite element.
An ophthalmological composition comprising or consisting of 0.10 to 0.45% by weight of hyaluronic acid and/or an ophthalmologically acceptable salt of hyaluronic acid, 0.60 to 5.00% by weight of ectoin or an ophthalmologically acceptable ectoin derivative, and ad 100% by weight water, the composition not comprising any further pharmaceutically active ingredient. 0.10 to 0.45% by weight of hyaluronic acid and/or an ophthalmologically acceptable salt of hyaluronic acid, 0.60 to 5.00% by weight of ectoin or an ophthalmologically acceptable ectoin derivative, and ad 100% by weight water, the composition not comprising any further pharmaceutically active ingredient.