mhurhangee/patent-ind-claim-en huggingface dataset:
Heat pump unit comprising two circuits , wherein said two circuits comprise a first sub-circuit adapted to perform a higher temperature heat pump cycle (HPCM_HT) with a respective operating fluid, and a second sub-circuit adapted to perform a lower temperature heat pump cycle (HPCM_LT) with a respective operating fluid, wherein said first and second sub-circuits are in a cascading heat exchange relationship with each other so as to perform globally a two-stage heat pump cycle, said two circuits comprising: - an evaporator (S8) adapted to perform the evaporation of the operating fluid at a lower pressure of the lower temperature heat pump cycle (HPCM_LT) and intended to be connected to an external circuit of a first thermal user installation in a cooling operating mode of said heat pump unit ; - a condenser (S4) adapted to perform the condensation of the operating fluid at a higher pressure of the higher temperature heat pump cycle (HPCM_HT) and intended to be connected to an external circuit of a first heat sink in a cooling operating mode of said heat pump unit , and - a first heat exchanger (S6), adapted to perform an undercooling of the operating fluid at the higher pressure of the higher temperature heat pump cycle (HPCM_HT) after the condensation of the same, characterized in that said first heat exchanger (S6) is selectively connectable to an external circuit of a second thermal user installation for transferring thereto heat power released by said operating fluid during said undercooling, said heat pump unit comprising switching means (V1, V2), adapted to allow an exchange of connections of the external circuits of said first thermal user installation and of said first heat sink with said evaporator (S8) and with said condenser (S4), respectively. - an evaporator (S8) adapted to perform the evaporation of the operating fluid at a lower pressure of the lower temperature heat pump cycle (HPCM_LT) and intended to be connected to an external circuit of a first thermal user installation in a cooling operating mode of said heat pump unit ; - a condenser (S4) adapted to perform the condensation of the operating fluid at a higher pressure of the higher temperature heat pump cycle (HPCM_HT) and intended to be connected to an external circuit of a first heat sink in a cooling operating mode of said heat pump unit , and - a first heat exchanger (S6), adapted to perform an undercooling of the operating fluid at the higher pressure of the higher temperature heat pump cycle (HPCM_HT) after the condensation of the same,
A learning device comprising: an input unit configured to use a web browser to crawl one or more web pages from an originating web page, and to accept input of known benign and known malicious log information obtained from the web browser until an ending web page is reached, the log information including screen shot images of the one or more web pages; an image feature amount extraction unit configured to extract, as a feature amount of each web page included in the log information, image data on the screen shot image of the web page drawn by the web browser, and convert the image data into vector information having a dimension according to a number of feature points by detecting feature points residing in a certain screen shot image and extracting feature points common to the screen shot images ; and a learning unit configured to generate a training model using, as training data, the feature amount of each web page included in the log information by integrating pieces of the vector information and using a supervised machine learning method capable of executing binary classification into malicious and benign log information. an input unit configured to use a web browser to crawl one or more web pages from an originating web page, and to accept input of known benign and known malicious log information obtained from the web browser until an ending web page is reached, the log information including screen shot images of the one or more web pages; an image feature amount extraction unit configured to extract, as a feature amount of each web page included in the log information, image data on the screen shot image of the web page drawn by the web browser, and convert the image data into vector information having a dimension according to a number of feature points by detecting feature points residing in a certain screen shot image and extracting feature points common to the screen shot images ; and a learning unit configured to generate a training model using, as training data, the feature amount of each web page included in the log information by integrating pieces of the vector information and using a supervised machine learning method capable of executing binary classification into malicious and benign log information.
A network control element for performing service based control in a communication network system, the network control element comprising: receiving means for receiving a message via a first interface (Rx, Gq) configured to transport application level session information from a supporting network entity supporting an application session, the message comprising application session information and media component information; deciding means for deciding control information based on the message, the control information being decided for one or more service flows within one or more access bearers associated with the application session; generating means for generating a decision message such that the decision message comprises the control information, one or more service flow filters, and information on a service in question, the decision message enabling an access network element to perform service based processing on data belonging to the application session; and sending means for sending the decision message to the access network element via a second interface (Gx, Go) configured to provide flow control rules, the one or more service flow filters enabling the access network element to perform service flow detecting and to identify at least one service flow, and the control information in the decision message comprising quality of service rules and a service identifier indicating the service in question. receiving means for receiving a message via a first interface (Rx, Gq) configured to transport application level session information from a supporting network entity supporting an application session, the message comprising application session information and media component information; deciding means for deciding control information based on the message, the control information being decided for one or more service flows within one or more access bearers associated with the application session; generating means for generating a decision message such that the decision message comprises the control information, one or more service flow filters, and information on a service in question, the decision message enabling an access network element to perform service based processing on data belonging to the application session; and sending means for sending the decision message to the access network element via a second interface (Gx, Go) configured to provide flow control rules, the one or more service flow filters enabling the access network element to perform service flow detecting and to identify at least one service flow, and the control information in the decision message comprising quality of service rules and a service identifier indicating the service in question.
A device for processing a carcass-part of slaughtered poultry in a processing line, which carcass-part is supported on a carrier that is movable in said processing line and comprises wing-joints , coracoids , a wishbone embodied with two legs (9', 9") that merge into each other at an acute angle in a wishbone head , a keelbone , at least one membrana and/or ligament that connects at least to the wishbone , and naturally present meat including inner and outer fillets, which device comprises a tool for cutting the membrana and removing of said wishbone from the carcass-part , which tool comprises a primary knife and two secondary knifes arranged on opposite sides of said primary knife to disconnect the wishbone from the at least one membrana and/or ligament while retaining the naturally present meat on the carcass-part , characterized in that said tool further comprises a tertiary knife positioned or positionable adjacent to the two secondary knifes on a side of the secondary knifes opposite to the side where the primary knife is positioned or positionable so as to define a cage for trapping at least part of the wishbone in said cage delimited by the primary knife , the two secondary knifes and the tertiary knife .
An aqueous adhesive composition comprising: emulsion polymer of a monomer mixture comprising vinyl-based monomers, (meth)acrylic acid-based monomers, (meth)acrylic acid ester-based monomers comprising C1-14 alkyl groups, and (meth)acryl ester-based monomers comprising hydroxyl groups; and a cyclic ether compound comprising two or more hydroxyl groups -OH in the molecule and having a molecular weight of 75 to 200 g/mol. emulsion polymer of a monomer mixture comprising vinyl-based monomers, (meth)acrylic acid-based monomers, (meth)acrylic acid ester-based monomers comprising C1-14 alkyl groups, and (meth)acryl ester-based monomers comprising hydroxyl groups; and a cyclic ether compound comprising two or more hydroxyl groups -OH in the molecule and having a molecular weight of 75 to 200 g/mol.
An active agent-conjugate comprising Formula Ia: wherein: the A -component is a targeting moiety selected from the group consisting of a monoclonal antibody, an antibody fragment, a protein ligand, a protein scaffold, and a peptide; the E -component is selected from the group consisting of: L 3 is an optionally substituted C 1 -C 6 alkyl, or L 3 is null, when L 3 is null the sulfur is directly connected to the E -component; L 4 is an optionally substituted C 1 -C 6 alkyl, or L 4 is null, when L 4 is null the sulfur is directly connected to the E -component; B is an auxiliary moiety that optionally is a second targeting moiety selected from the group consisting of: a hydrophilic polymer, a biodegradable polymer, a monoclonal antibody, an antibody fragment, a protein ligand, a protein scaffold, a peptide, RNA, and DNA; or B is null; each L 2 is independently a linker, wherein L 2 links to E, wherein L 2 includes -(CH 2 ) n -; each D is independently selected, wherein each D includes an active agent selected from the group consisting of: a chemotherapy drug, a tubulin-binder, a DNA-alkylating agent, a DNA intercalator, an HSP90 inhibitor, a DNA topoisomerase inhibitor, an HDAC inhibitor, a proteasome inhibitor, a peptide, an siRNA, an antisense DNA, epothilone A, epothilone B, and paclitaxel; and n is independently 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10. the A -component is a targeting moiety selected from the group consisting of a monoclonal antibody, an antibody fragment, a protein ligand, a protein scaffold, and a peptide; the E -component is selected from the group consisting of: L 3 is an optionally substituted C 1 -C 6 alkyl, or L 3 is null, when L 3 is null the sulfur is directly connected to the E -component; L 4 is an optionally substituted C 1 -C 6 alkyl, or L 4 is null, when L 4 is null the sulfur is directly connected to the E -component; B is an auxiliary moiety that optionally is a second targeting moiety selected from the group consisting of: a hydrophilic polymer, a biodegradable polymer, a monoclonal antibody, an antibody fragment, a protein ligand, a protein scaffold, a peptide, RNA, and DNA; or B is null; each L 2 is independently a linker, wherein L 2 links to E, wherein L 2 includes -(CH 2 ) n -; each D is independently selected, wherein each D includes an active agent selected from the group consisting of: a chemotherapy drug, a tubulin-binder, a DNA-alkylating agent, a DNA intercalator, an HSP90 inhibitor, a DNA topoisomerase inhibitor, an HDAC inhibitor, a proteasome inhibitor, a peptide, an siRNA, an antisense DNA, epothilone A, epothilone B, and paclitaxel; and n is independently 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10.
A method for rendering a partially occluded audio element , the audio element having an extent and being represented using a set of two or more virtual loudspeakers (SpL, SpC, SpR), the set comprising a first and a second virtual loudspeaker, a projection of the audio element being divided into sub-areas, wherein each sub-area is associated with one virtual loudspeaker, the method comprising: determining a first occlusion amount, O1, for a first sub-area; modifying (s402) a first virtual loudspeaker signal for the first virtual loudspeaker based on O1 such that the modified loudspeaker signal is equal to: g1 * VS1, where g1 is a gain factor that is calculated using O1 and VS1 is the first virtual loudspeaker signal, thereby producing a first modified virtual loudspeaker signal; determining a second occlusion amount, O2, for a second sub-area; modifying a second virtual loudspeaker signal for the second virtual loudspeaker based on O2 such that the second modified loudspeaker signal is equal to: g2 * VS2, where g2 is a gain factor that is calculated using O2 and VS2 is the second virtual loudspeaker signal, thereby producing a second modified virtual loudspeaker signal; and using (s404) the first and second modified virtual loudspeaker signals to render the audio element. determining a first occlusion amount, O1, for a first sub-area; modifying (s402) a first virtual loudspeaker signal for the first virtual loudspeaker based on O1 such that the modified loudspeaker signal is equal to: g1 * VS1, where g1 is a gain factor that is calculated using O1 and VS1 is the first virtual loudspeaker signal, thereby producing a first modified virtual loudspeaker signal; determining a second occlusion amount, O2, for a second sub-area; modifying a second virtual loudspeaker signal for the second virtual loudspeaker based on O2 such that the second modified loudspeaker signal is equal to: g2 * VS2, where g2 is a gain factor that is calculated using O2 and VS2 is the second virtual loudspeaker signal, thereby producing a second modified virtual loudspeaker signal; and using (s404) the first and second modified virtual loudspeaker signals to render the audio element.
A coated fibre comprising a fibre and a coating, wherein the coating comprises nanoplatelets and a polymer, wherein the coating has a layered structure comprising at least two bilayers, each bilayer comprising a nanoplatelet layer and a polymer layer; wherein: the nanoplatelets have an aspect ratio of at least about 5 and up to a maximum of about 45, a thickness of about 10 nm to about 50 nm, or an average width less than or equal to W p,max , wherein W p,max is determined according to the formula: W p , max = 2 r . arccos r r + Δd polymer where r is the fibre diameter in nanometres, and Δd polymer is half the thickness of the polymer layer.
A quantum circuit, comprising: a network of a plurality of sub-circuits (210a, 210b, ... 210n) coupled in parallel, wherein each sub-circuit includes a plurality of non-linear circuit elements coupled in series, wherein the quantum circuit is configured to receive an input, across the plurality of sub-circuits, the input comprising: a signal to be amplified; and a plurality of pump signal components, each pump signal component parametrically adjusting a gain of at least one of the non-linear circuit element in such manner that the quantum circuit acts as an amplifier. a network of a plurality of sub-circuits (210a, 210b, ... 210n) coupled in parallel, wherein each sub-circuit includes a plurality of non-linear circuit elements coupled in series, wherein the quantum circuit is configured to receive an input, across the plurality of sub-circuits, the input comprising: a signal to be amplified; and a plurality of pump signal components, each pump signal component parametrically adjusting a gain of at least one of the non-linear circuit element in such manner that the quantum circuit acts as an amplifier. a signal to be amplified; and a plurality of pump signal components, each pump signal component parametrically adjusting a gain of at least one of the non-linear circuit element in such manner that the quantum circuit acts as an amplifier.
Method for controlling the motor of an at least partly electrically driven bicycle, wherein • at least one driving dynamics variable of the operation of the bicycle is recorded , and • at least the region ahead in the direction of travel of the bicycle is recorded by way of the data from a surroundings sensor system , and • an obstacle is detected depending on the data from the surroundings sensor system and the at least one driving dynamics variable, and • the motor is driven depending on the detection of the obstacle and the at least one driving dynamics variable, characterized in that • an evasion manoeuvre around the obstacle is determined depending on the at least one driving dynamics variable and the detected obstacle, wherein, upon detection of a possible evasion manoeuvre, depending on the determined evasion manoeuvre, the support from the motor , upon actuation of the corresponding pedal side on the side on which the evasion manoeuvre is performed, is reduced such that a compensation of the reduction is initiated by the driver and the bicycle tilts around the obstacle by virtue of the compensation on the side on which the evasion manoeuvre is performed. • at least one driving dynamics variable of the operation of the bicycle is recorded , and • at least the region ahead in the direction of travel of the bicycle is recorded by way of the data from a surroundings sensor system , and • an obstacle is detected depending on the data from the surroundings sensor system and the at least one driving dynamics variable, and • the motor is driven depending on the detection of the obstacle and the at least one driving dynamics variable, • an evasion manoeuvre around the obstacle is determined depending on the at least one driving dynamics variable and the detected obstacle, wherein, upon detection of a possible evasion manoeuvre, depending on the determined evasion manoeuvre, the support from the motor , upon actuation of the corresponding pedal side on the side on which the evasion manoeuvre is performed, is reduced such that a compensation of the reduction is initiated by the driver and the bicycle tilts around the obstacle by virtue of the compensation on the side on which the evasion manoeuvre is performed.
An abrasive article comprising: a backing having opposed first and second major surfaces; an abrasive layer disposed on the first major surface; and being characterised by a plurality of protrusions extending outwardly from the second major surface, wherein the protrusions comprise a polymer having a Shore A hardness ranging from 5 to 90. a backing having opposed first and second major surfaces; an abrasive layer disposed on the first major surface; and being characterised by a plurality of protrusions extending outwardly from the second major surface, wherein the protrusions comprise a polymer having a Shore A hardness ranging from 5 to 90.
A grease composition for rolling bearings of automotive electrical equipment or automotive auxiliaries, comprising; a base oil that comprises as an essential component an alkyldiphenyl ether oil; a thickener consisting of a diurea compound represented by formula : wherein R 2 is a bivalent aromatic hydrocarbon group having 6 to 15 carbon atoms; and one of R 1 or R 3 represents cyclohexyl group and the other represents an alkyl group having 8 to 22 carbon atoms; as an anti-flaking additive an organic sulfonate rust inhibitor selected from the group consisting of zinc sulfonate and calcium sulfonate and a load carrying additive selected from the group consisting of zinc dialkyldithiocarbamates and zinc dialkyldithiophosphates; an amine type antioxidant and a phenol type antioxidant, wherein the thickener is contained in an amount of 10 to 25 mass%; the organic sulfonate rust inhibitor is contained in an amount of 0.1 to 10% by mass; the load carrying additive is contained in an amount of 0.1 to 10% by mass; the amine type antioxidant and the phenol type antioxidant are contained in an amount of 0.5 to 6% by mass; and all mass percents are based on the total mass of the grease composition. wherein R 2 is a bivalent aromatic hydrocarbon group having 6 to 15 carbon atoms; and one of R 1 or R 3 represents cyclohexyl group and the other represents an alkyl group having 8 to 22 carbon atoms; as an anti-flaking additive an organic sulfonate rust inhibitor selected from the group consisting of zinc sulfonate and calcium sulfonate and a load carrying additive selected from the group consisting of zinc dialkyldithiocarbamates and zinc dialkyldithiophosphates; an amine type antioxidant and a phenol type antioxidant, wherein the thickener is contained in an amount of 10 to 25 mass%; the organic sulfonate rust inhibitor is contained in an amount of 0.1 to 10% by mass; the load carrying additive is contained in an amount of 0.1 to 10% by mass; the amine type antioxidant and the phenol type antioxidant are contained in an amount of 0.5 to 6% by mass; and all mass percents are based on the total mass of the grease composition.
A composition for a therapeutic use in inducing or stimulating growth of keratinous fibres for treating human baldness in adult males or caused by anticancer treatments, wherein the composition comprises pinene as an active ingredient and wherein the active ingredient pinene comprises the α-pinene isomer of pinene and wherein at least 70% of the active ingredient pinene is the (-)- α enantiomer of pinene, characterised in that the active ingredient pinene is present in the composition at between 0.5% to 10% (w/w).
Heating device comprising a combustion chamber and a heating gas flue formed to guide hot waste gas generated in the combustion chamber , wherein said heating gas flue has an inlet region (2.1) and an outlet region (2.2) and is configured to be connected to the combustion chamber via the inlet region (2.1), and wherein heat transfer fins which are spaced apart from one another and have a wall thickness, are arranged in the heating gas flue for heat transfer from the hot waste gas to the heating gas flue , wherein the heating gas flue on the one hand has waste gas flowing through it and on the other hand is configured to be surrounded by water, characterized in that on the side of the inlet region (2.1) the wall thickness of the heat transfer fins is greater or the heat transfer fins are configured to be thicker-walled than on the side of the outlet region (2.2) and that a wall of the heating gas flue arranged between the waste gas and the water has a wall thickness which is configured to be smaller than the smallest wall thickness of the heat transfer fin .