mhurhangee/patent-ind-claim-en huggingface dataset:
An installation method for a refrigerant cycle apparatus including a first heat source unit , a utilization unit , and a connection pipe , the installation method comprising: a first refrigerant recovery step (S102, S202) of recovering a first refrigerant (R1) having a first GWP and at least one of flammability or toxicity from the first heat source unit; a second refrigerant recovery and regeneration step (S104, S204) of recovering a second refrigerant from an existing refrigerant cycle apparatus, and regenerating the second refrigerant, the existing refrigerant cycle apparatus including a second heat source unit , the utilization unit, and the connection pipe, and using the second refrigerant (R2), the second refrigerant having a second GWP and at least one of non-flammability or non-toxicity; a disconnection step (S106, S206) of disconnecting the second heat source unit from the connection pipe of the existing refrigerant cycle apparatus; a connection step (S106, S206) of connecting the first heat source unit, from which the first refrigerant has been recovered, to the connection pipe to configure the refrigerant cycle apparatus; and a second refrigerant accommodation step (S107, S204, S207) of accommodating, in the first heat source unit, the second refrigerant (R2) recovered and regenerated from the existing refrigerant cycle apparatus . a first refrigerant recovery step (S102, S202) of recovering a first refrigerant (R1) having a first GWP and at least one of flammability or toxicity from the first heat source unit; a second refrigerant recovery and regeneration step (S104, S204) of recovering a second refrigerant from an existing refrigerant cycle apparatus, and regenerating the second refrigerant, the existing refrigerant cycle apparatus including a second heat source unit , the utilization unit, and the connection pipe, and using the second refrigerant (R2), the second refrigerant having a second GWP and at least one of non-flammability or non-toxicity; the existing refrigerant cycle apparatus including a second heat source unit , the utilization unit, and the connection pipe, and using the second refrigerant (R2), the second refrigerant having a second GWP and at least one of non-flammability or non-toxicity; a disconnection step (S106, S206) of disconnecting the second heat source unit from the connection pipe of the existing refrigerant cycle apparatus; a connection step (S106, S206) of connecting the first heat source unit, from which the first refrigerant has been recovered, to the connection pipe to configure the refrigerant cycle apparatus; and a second refrigerant accommodation step (S107, S204, S207) of accommodating, in the first heat source unit, the second refrigerant (R2) recovered and regenerated from the existing refrigerant cycle apparatus .
A connecting device for releasably connecting two assemblies , having a closure module which is assigned to a first of the assemblies , and has a housing assembly, an adjustment element disposed so as to be adjustable on the housing assembly, and a vacuum element ; and an attachment assembly which is assigned to a second of the assemblies , wherein the vacuum element is connectable to the attachment assembly along an attachment direction (A) and in a connected position interacts with the attachment assembly in such a manner that the vacuum element and the attachment assembly , when the closure module and the attachment assembly are stressed relative to one another, are held together by virtue of a vacuum effect between the vacuum element and the attachment assembly , characterized in that the adjustment element for releasing the vacuum element from the attachment assembly is able to be tilted about different spatial directions in relation to the housing assembly so as to expose a flow opening in the housing assembly to an inflow of air into a space (B) present between the vacuum element and the attachment assembly , the adjustment element has a plurality of bearing journals (220, 221, 229A-229C), and the housing assembly has a plurality of bearing points (207, 208, 230, 231, 209A-209C) for bearing the adjustment element , wherein the bearing journals (220, 221, 209A-209C) are in each case received in one bearing point (207, 208, 230, 231, 209A-209C) of the housing assembly, and each of the bearing journals (220, 221, 229A-229C) is able to be tilted in the assigned bearing point (207, 208, 230, 231, 209A-209C) and is moreover able to be moved along an activation direction (B1-B6) along which the adjustment element is adjustable on the housing assembly. a closure module which is assigned to a first of the assemblies , and has a housing assembly, an adjustment element disposed so as to be adjustable on the housing assembly, and a vacuum element ; and an attachment assembly which is assigned to a second of the assemblies , wherein the vacuum element is connectable to the attachment assembly along an attachment direction (A) and in a connected position interacts with the attachment assembly in such a manner that the vacuum element and the attachment assembly , when the closure module and the attachment assembly are stressed relative to one another, are held together by virtue of a vacuum effect between the vacuum element and the attachment assembly ,
A nonaqueous electrolyte battery comprising: a negative electrode comprising an oxide of titanium; a positive electrode comprising a positive electrode current collector comprising aluminum, a positive electrode layer formed on the positive electrode current collector , and comprising a nickel-cobalt-manganese composite oxide including lithium, and a passive film on the positive electrode current collector , the passive film comprising AlF 3 ; and a nonaqueous electrolyte, wherein a ratio p/n of a capacity p of the positive electrode to a capacity n of the negative electrode falls within a range from 1.1 to 1.8, and the positive electrode comprises a region within a range at a depth of 30 nm or less from a surface of the positive electrode current collector , the region having a ratio F/Al of 0.03 or more and 0.3 or less and spanning over a distance from 0.1 nm to 30 nm in a depth direction of the positive electrode current collector , where F is an emission intensity of fluorine obtained by radiofrequency glow discharge optical emission spectroscopy (GD-OES) and Al is an emission intensity of aluminum obtained by the GD-OES. a negative electrode comprising an oxide of titanium; a positive electrode comprising a positive electrode current collector comprising aluminum, a positive electrode layer formed on the positive electrode current collector , and comprising a nickel-cobalt-manganese composite oxide including lithium, and a passive film on the positive electrode current collector , the passive film comprising AlF 3 ; and a nonaqueous electrolyte, wherein a ratio p/n of a capacity p of the positive electrode to a capacity n of the negative electrode falls within a range from 1.1 to 1.8, and the positive electrode comprises a region within a range at a depth of 30 nm or less from a surface of the positive electrode current collector , the region having a ratio F/Al of 0.03 or more and 0.3 or less and spanning over a distance from 0.1 nm to 30 nm in a depth direction of the positive electrode current collector , where F is an emission intensity of fluorine obtained by radiofrequency glow discharge optical emission spectroscopy (GD-OES) and Al is an emission intensity of aluminum obtained by the GD-OES.
A method of modifying the dispensing properties of a container, said method comprises the following steps: • providing a container comprising a container wall having an inner surface and a dispensing opening, said inner surface being composed of hydrophobic polymer, said inner surface having a surface free energy at 20°C of less than 70 mJ/m 2 ; • subjecting the inner surface of the container to an oxidative surface treatment to produce a pre-treated inner surface; • applying a coating layer onto the pre-treated inner surface by coating said pre-treated inner surface with a coating solution, said coating solution comprising a solvent and 0.05-20 wt.% of amide slip agent selected from optionally fluorinated fatty acid amide, polysiloxane amide and combinations thereof; and • removing the solvent in the coating layer by evaporation, wherein the hydrophobic polymer is selected from acrylonitrile butadiene styrene (ABS), acrylonitrile styrene acrylate (ASA), ethylene propylene diene monomer (EPDM) rubber, polycarbonate (PC), polyethylene (PE), polyethyleneterephthalate (PET), poly(ethylene-vinyl acetate) (PEVA), polymethylmethacrylate (PMMA), polypropylene (PP), polystyrene (PS), polyurethane (PU), polyvinylchloride (PVC), polybutylene terephthalate (PBT) and mixtures thereof. • providing a container comprising a container wall having an inner surface and a dispensing opening, said inner surface being composed of hydrophobic polymer, said inner surface having a surface free energy at 20°C of less than 70 mJ/m 2 ; • subjecting the inner surface of the container to an oxidative surface treatment to produce a pre-treated inner surface; • applying a coating layer onto the pre-treated inner surface by coating said pre-treated inner surface with a coating solution, said coating solution comprising a solvent and 0.05-20 wt.% of amide slip agent selected from optionally fluorinated fatty acid amide, polysiloxane amide and combinations thereof; and • removing the solvent in the coating layer by evaporation, wherein the hydrophobic polymer is selected from acrylonitrile butadiene styrene (ABS), acrylonitrile styrene acrylate (ASA), ethylene propylene diene monomer (EPDM) rubber, polycarbonate (PC), polyethylene (PE), polyethyleneterephthalate (PET), poly(ethylene-vinyl acetate) (PEVA), polymethylmethacrylate (PMMA), polypropylene (PP), polystyrene (PS), polyurethane (PU), polyvinylchloride (PVC), polybutylene terephthalate (PBT) and mixtures thereof.
An apparatus comprising at least one processor , and at least one memory including computer program code, wherein the at least one memory and the computer program code are configured, with the at least one processor , to cause the apparatus to: use a machine learning algorithm to select an antenna panel from a plurality of antenna panels; determine a first long-term reward value associated with the selected antenna panel based at least partly on one or more first signals received on the selected antenna panel, wherein the first long-term reward value is an average or a sum of consecutive immediate reward values over a first time window, wherein the consecutive immediate reward values comprise a weighted average of a plurality of key performance indicators comprising at least a serving cell quality metric and a beam failure rate; and transmit or receive a second signal via the selected antenna panel, if the first long-term reward value exceeds one or more second long-term reward values associated with at least a subset of the plurality of antenna panels. use a machine learning algorithm to select an antenna panel from a plurality of antenna panels; determine a first long-term reward value associated with the selected antenna panel based at least partly on one or more first signals received on the selected antenna panel, wherein the first long-term reward value is an average or a sum of consecutive immediate reward values over a first time window, wherein the consecutive immediate reward values comprise a weighted average of a plurality of key performance indicators comprising at least a serving cell quality metric and a beam failure rate; and transmit or receive a second signal via the selected antenna panel, if the first long-term reward value exceeds one or more second long-term reward values associated with at least a subset of the plurality of antenna panels.
A method of operating an aerosol-generating device for generating an aerosol from an aerosol-forming substrate , the aerosol-generating device comprising; a power supply for supplying power to generate the aerosol, and a controller; the method comprising, monitoring a parameter indicative of aerosol generation during operation of the aerosol-generating device, and analysing the monitored parameter to identify a user puff, the user puff defined by a puff start and a puff end, in which the step of analysing the monitored parameter comprises steps of calculating a first characteristic of the monitored parameter, calculating a second characteristic of the monitored parameter, and analysing both the first characteristic and the second characteristic to determine the puff start and the puff end, in which the parameter indicative of aerosol generation is a parameter representative of power supplied by the power supply, and in which the first characteristic is a first moving average value of the monitored parameter computed on a first time window having a first time window duration, and in which the second characteristic is a second moving average value of the monitored parameter computed on a second time window having a second time window duration, the second time window duration being different to the first time window duration. a power supply for supplying power to generate the aerosol, and a controller; the method comprising, monitoring a parameter indicative of aerosol generation during operation of the aerosol-generating device, and analysing the monitored parameter to identify a user puff, the user puff defined by a puff start and a puff end, in which the step of analysing the monitored parameter comprises steps of calculating a first characteristic of the monitored parameter, calculating a second characteristic of the monitored parameter, and analysing both the first characteristic and the second characteristic to determine the puff start and the puff end, in which the parameter indicative of aerosol generation is a parameter representative of power supplied by the power supply, and in which the first characteristic is a first moving average value of the monitored parameter computed on a first time window having a first time window duration, and in which the second characteristic is a second moving average value of the monitored parameter computed on a second time window having a second time window duration, the second time window duration being different to the first time window duration.
A method for providing access to one or more documents stored on a first computing system, the method comprising: receiving , by a second computing system, a path name for one or more documents and a user-friendly handle identifying the first computing system; receiving , by the second computing system, an identity-information document (116; 300) from the first computing system, the identity-information document comprising a principal identifier of the first computing system, a public key, and a domain host for the principal of the first computing system; storing , by the second computing system, the identity information document; intercepting an initial request for access to a document, wherein the initial request comprises the user-friendly handle; resolving , by the second computing system, the user-friendly handle in the initial request with the public key and the domain host of the first computing system; converting the public key to an encrypted machine name and appending the encrypted machine name to the domain host; looking up a registered machine location of the first computing system stored on a DNS server using the encrypted machine name appended to the domain host, wherein the DNS server stores the encrypted machine name and the host domain along with the corresponding registered machine location of the first computing system; amending the initial request to substitute the user-friendly handle with the registered machine location; and sending the amended request from the second computing system to the first computing system to access the one or more documents. receiving , by a second computing system, a path name for one or more documents and a user-friendly handle identifying the first computing system; receiving , by the second computing system, an identity-information document (116; 300) from the first computing system, the identity-information document comprising a principal identifier of the first computing system, a public key, and a domain host for the principal of the first computing system; storing , by the second computing system, the identity information document; intercepting an initial request for access to a document, wherein the initial request comprises the user-friendly handle; resolving , by the second computing system, the user-friendly handle in the initial request with the public key and the domain host of the first computing system; converting the public key to an encrypted machine name and appending the encrypted machine name to the domain host; looking up a registered machine location of the first computing system stored on a DNS server using the encrypted machine name appended to the domain host, wherein the DNS server stores the encrypted machine name and the host domain along with the corresponding registered machine location of the first computing system; amending the initial request to substitute the user-friendly handle with the registered machine location; and sending the amended request from the second computing system to the first computing system to access the one or more documents.
Housing for accommodation of a multiplicity of battery cells , in particular lithium-ion battery cells, wherein the housing , in particular a plastic housing, comprises a cooling device with an inlet point and an outlet point for an air stream for cooling the battery cells , wherein the housing is designed as an integral component together with the cooling device integrated in the housing , wherein the cooling device additionally has spacers (34; 34a, 34b) designed for arranging and mechanically holding all the battery cells to be accommodated with an intermediate space , through which air can be guided, between the battery cells , thereby making available to the air stream an air channel between the battery cells , wherein the cooling device has a distributor space for distributing the air stream , which is arranged after the inlet point and before the battery cells in the flow direction of the air stream , wherein the distributor space has at least one corner (c1, c2) with a rounded portion for uniform distribution of the air stream .
Maneuver element composed by an element comprising two or three arms, said element being provided on each end of said arms with a protruding grip and centrally with safety pressure activated means which can be pressure activated and monitored from outside, apt to engage a structure on which it is mounted and to prevent the rotation, said safety pressure activated means being composed of a button system having a central hole, housed within a depression of said maneuver element , and partially protruding from it, from the base of said button system abutting engaging and retaining plugs housed free to move longitudinally within the holes obtained in said element and apt to the insertion within the structure on which the maneuver element is installed, wherein fast remote identification means of the functionality status of said maneuver element and pressure fast activating means of said engaging and retaining plugs are associated with said button system, characterized in that said pressure fast activating means of said plugs being composed by the association of engaging elements mounted on a rotor with driving and retaining elements provided on a stator complementary to said rotor .
Structure of an opening panel of a motor vehicle, comprising, on the one hand, an inner lining made from a plastic material arranged, depending on the thickness of the structure , on a side of the structure that is intended to face towards the passenger compartment of the vehicle, and, on the other hand, an outer structural reinforcement made from a plastic material arranged, depending on the thickness of the structure , on a side of the structure that is opposite the passenger compartment relative to the inner lining , the inner lining and the outer structural reinforcement being configured and assembled together so as to delimit between them a hollow body providing the opening panel with resistance to external impacts, in particular to frontal and lateral impacts applied to the side door, the structure being characterized in that the hollow body is closed over the entire periphery of the opening panel .
An oligoester composition derived from a reactant mixture comprising: one or more rosins selected from the group consisting of tall oil rosin and gum rosin; one or more polyhydric alcohol; and one or more cycloaliphatic dicarboxylic acids having 5 to 19 carbon atoms, wherein the oligoester composition has a hydroxyl value of from 7 mg KOH/g to 40 mg KOH/mg and has a softening point of 90°C to 150°C. one or more rosins selected from the group consisting of tall oil rosin and gum rosin; one or more polyhydric alcohol; and one or more cycloaliphatic dicarboxylic acids having 5 to 19 carbon atoms, wherein the oligoester composition has a hydroxyl value of from 7 mg KOH/g to 40 mg KOH/mg and has a softening point of 90°C to 150°C.
X-ray device for a medical workstation, comprising: - a robot (R), having a plurality of axes , a control device , which is configured to control the axes for a movement of the robot (R), and a fastening device , and - a support device arranged on the fastening device and comprising an X-ray radiation source and an X-ray radiation receiver , wherein in the control device a 3D model is saved of the robot (R) with arranged support device , which models the spatial extension of the robot (R) with arranged support device during the movement of the robot (R), wherein the 3D model also models the spatial extension of a living being located within the medical workstation , and the control device based on the 3D model identifies a potential collision of the X-ray device with the living being and causes the robot (R) to initiate a measure for avoiding the potential collision, further having at least one sensor (18-20) coupled to the control device , by means of which sensor the area surrounding the X-ray device is detected and which sensor is configured to identify a movement of the living being in order to update the current position of the living being in the 3D model . - a robot (R), having a plurality of axes , a control device , which is configured to control the axes for a movement of the robot (R), and a fastening device , and - a support device arranged on the fastening device and comprising an X-ray radiation source and an X-ray radiation receiver ,
An anti-PD-1 antibody comprising a light chain variable domain (VL) sequence comprising a CDR-L1 comprising the amino acid sequence KASQDVTTAVA (SEQ ID NO:9); a CDR-L2 comprising the amino acid sequence WASTRHT (SEQ ID NO: 10); and a CDR-L3 comprising the amino acid sequence QQHYTIPWT (SEQ ID NO: 11), and a heavy chain variable domain (VH) sequence comprising a CDR-H1 comprising the amino acid sequence FTFSNYGMS (SEQ ID NO: 12); a CDR- H2 comprising the amino acid sequence TISGGGSNIY (SEQ ID NO: 13); and a CDR-H3 comprising the amino acid sequence VSYYYGIDF (SEQ ID NO: 14).