mhurhangee/patent-ind-claim-en huggingface dataset:
A system for producing images, wherein the system comprises: - an input image providing unit for providing input images in which structures that are in fact spatially separated are represented in a spatially superimposed manner in at least one spatial direction, characterized in that - a neural network providing unit for providing a neural network which is adapted to produce, on the basis of input images in which structures that are in fact spatially separated are represented in a spatially superimposed manner in at least one spatial direction, output images in which the structures that are in fact spatially separated are represented in a spatially separated manner in the at least one spatial direction, - an image producing unit for producing images on the basis of the provided input images and the provided neural network. - an input image providing unit for providing input images in which structures that are in fact spatially separated are represented in a spatially superimposed manner in at least one spatial direction, characterized in that - a neural network providing unit for providing a neural network which is adapted to produce, on the basis of input images in which structures that are in fact spatially separated are represented in a spatially superimposed manner in at least one spatial direction, output images in which the structures that are in fact spatially separated are represented in a spatially separated manner in the at least one spatial direction, - an image producing unit for producing images on the basis of the provided input images and the provided neural network.
Sliding door device (D) comprising a rail , a door panel and covering panels , said rail being arranged in a surface-mounted way above a door opening (O) made in a wall (P), said door panel being equipped in the upper part thereof with at least one translational guide trolley , said guide trolley cooperating with said rail , said rail being pre-formed to accommodate said covering panels which are connected thereto, said covering panels being dimensioned and pre-formed on the one hand, to create between the wall (P) and the rear face of the covering panels a reception volume for receiving said door panel in the open position and, on the other hand, to occupy the entire height of the wall (P) on which they are installed, CHARACTERIZED BY THE FACT THAT it includes an additional connecting profile which is fixed to said rail and is pre-formed to provide two coplanar vertical projections , one oriented upwards and the other oriented downwards, on which the edges of one or more covering panels engage, the upwardly oriented projection accommodating one or more upper covering panels and the downwardly oriented projection accommodating one or more lower covering panels . said door panel being equipped in the upper part thereof with at least one translational guide trolley , said guide trolley cooperating with said rail , said rail being pre-formed to accommodate said covering panels which are connected thereto, said covering panels being dimensioned and pre-formed on the one hand, to create between the wall (P) and the rear face of the covering panels a reception volume for receiving said door panel in the open position and, on the other hand, to occupy the entire height of the wall (P) on which they are installed, CHARACTERIZED BY THE FACT THAT it includes an additional connecting profile which is fixed to said rail and is pre-formed to provide two coplanar vertical projections , one oriented upwards and the other oriented downwards, on which the edges of one or more covering panels engage, the upwardly oriented projection accommodating one or more upper covering panels and the downwardly oriented projection accommodating one or more lower covering panels .
A power supply unit for an aerosol inhaler , the power supply unit comprising: a power supply configured to discharge power to a load for generating an aerosol from an aerosol source; and a control unit configured to perform a plurality of types of processes for diagnosing a state of the power supply , wherein the plurality of types of processes are different in at least one of time which is required to obtain a result of diagnosis and information which is used to obtain a result of diagnosis, and the plurality of types of processes include a process in which aerosol generation is necessary and a process in which aerosol generation is unnecessary. a power supply configured to discharge power to a load for generating an aerosol from an aerosol source; and a control unit configured to perform a plurality of types of processes for diagnosing a state of the power supply , wherein the plurality of types of processes are different in at least one of time which is required to obtain a result of diagnosis and information which is used to obtain a result of diagnosis, and the plurality of types of processes include a process in which aerosol generation is necessary and a process in which aerosol generation is unnecessary.
A surgical instrument , comprising: (a) a body ; (b) a shaft in communication with the body; (c) an end effector in communication with the shaft, wherein the end effector is configured to drive serially positioned staples through tissue, wherein the end effector comprises: (i) an anvil comprising an engagement groove , and (ii) a cartridge , wherein the anvil is operable to move relative to the cartridge, wherein the cartridge is positioned to drive staples upwardly toward the anvil, wherein the cartridge comprises a pair of laterally spaced apart bumps positioned at the distal end of the cartridge configured to prevent lateral rocking of the anvil and the cartridge further comprising a protrusion configured to engage the engagement groove, wherein the pair of laterally spaced apart bumps are pointed toward the anvil, and the engagement groove and the pair of laterally spaced apart bumps form a generally triangular shape when the anvil is closed against the cartridge. (a) a body ; (b) a shaft in communication with the body; (c) an end effector in communication with the shaft, wherein the end effector is configured to drive serially positioned staples through tissue, wherein the end effector comprises: (i) an anvil comprising an engagement groove , and (ii) a cartridge , wherein the anvil is operable to move relative to the cartridge, wherein the cartridge is positioned to drive staples upwardly toward the anvil, wherein the cartridge comprises a pair of laterally spaced apart bumps positioned at the distal end of the cartridge configured to prevent lateral rocking of the anvil and the cartridge further comprising a protrusion configured to engage the engagement groove, wherein the pair of laterally spaced apart bumps are pointed toward the anvil, and the engagement groove and the pair of laterally spaced apart bumps form a generally triangular shape when the anvil is closed against the cartridge. (i) an anvil comprising an engagement groove , and (ii) a cartridge , wherein the anvil is operable to move relative to the cartridge, wherein the cartridge is positioned to drive staples upwardly toward the anvil, wherein the cartridge comprises a pair of laterally spaced apart bumps positioned at the distal end of the cartridge configured to prevent lateral rocking of the anvil and the cartridge further comprising a protrusion configured to engage the engagement groove, wherein the pair of laterally spaced apart bumps are pointed toward the anvil, and the engagement groove and the pair of laterally spaced apart bumps form a generally triangular shape when the anvil is closed against the cartridge.
A method for dielectrically insulating an electrical active part wherein the electrical active part is arranged in a gas-tight housing comprising an insulating medium consisting of, consisting essentially of, or comprising a compound of general formula (I): SF (6-n) (OR) n (I) wherein n is 1, 2, 3, 4, or 5; and R is alkyl, alkenyl, alkynyl, aryl, fluorosubstituted alkyl, fluorosubstituted alkenyl, fluorosubstituted alkynyl or fluorosubstituted aryl.
Training device for improving the reaction capability, reflexes, quickness and other related sport-related physical and cognitive capabilities of a training person, comprising at least one response target to be hit that is arranged on at least one elastic holder cord , wherein this holder cord is arranged, in a taut state, between at least one attachment point arranged above the training area of the training person and a floor attachment, characterized in that - at least two mutually spaced-apart holder cords with response targets arranged thereon are connected together in a momentum-coupled manner via at least one common support element , - wherein the elastic holder cords are braced between this common support element and the respective floor or ceiling attachments or at least one further support element. - at least two mutually spaced-apart holder cords with response targets arranged thereon are connected together in a momentum-coupled manner via at least one common support element , - wherein the elastic holder cords are braced between this common support element and the respective floor or ceiling attachments or at least one further support element.
A method for discovering, for data collection, which network exposure function, NEF, or application function, AF, is serving a user equipment, UE, the method being performed by a network data analytics function, NWDAF, entity , the method comprising: providing (S102), to a 5GC network function entity , a query of which NEF or AF is serving the UE, wherein the query comprises an ID of the UE; characterized by receiving (S104), from the 5GC network function entity , a response comprising an ID of the NEF or the AF when there is a NEF or AF instance stored in the 5GC network function entity for the UE; and receiving (S106), from a network repository function, NRF , an address to the NEF or the AF, wherein the address to the AF is received when the AF is in trusted mode, and wherein the address to the NEF is received when the AF is in untrusted mode. providing (S102), to a 5GC network function entity , a query of which NEF or AF is serving the UE, wherein the query comprises an ID of the UE; characterized by receiving (S104), from the 5GC network function entity , a response comprising an ID of the NEF or the AF when there is a NEF or AF instance stored in the 5GC network function entity for the UE; and receiving (S106), from a network repository function, NRF , an address to the NEF or the AF, wherein the address to the AF is received when the AF is in trusted mode, and wherein the address to the NEF is received when the AF is in untrusted mode.
A belt attachment for bucket elevators that has: - An upper lock , - A lower lock , - A central piece in the shape of a wedge introduced through the opening of the ends of the sections of the belt to be attached and placed between both ends of the same, the entire assembly, the upper and lower locks , the ends of the belt and central piece being secured by attachment means that pass through all of the elements, characterized in that the belt attachment comprises a progressive tightening assembly based on the use of an eccentric piece , wherein said progressive tightening assembly comprises a piece arranged after the connection formed by the upper and lower locking pieces and the central wedged piece and which has arms on which the eccentric piece rotates and which by rotating, presses and clamps the core of the belt between the piece and the eccentric piece . - An upper lock , - A lower lock , - A central piece in the shape of a wedge introduced through the opening of the ends of the sections of the belt to be attached and placed between both ends of the same, the entire assembly, the upper and lower locks , the ends of the belt and central piece being secured by attachment means that pass through all of the elements, characterized in that the belt attachment comprises a progressive tightening assembly based on the use of an eccentric piece ,
An electronic apparatus, comprising: a touch module , comprising: a cover having at least one transparent icon ; a touch sensor layer disposed under the cover ; and a flexible printed circuit board , disposed under the cover and electrically connected to the touch sensor layer ; a light-emitting element mounted on the flexible printed circuit board , wherein the flexible printed circuit board is located between the cover and the light-emitting element ; and a light guide film , disposed under the touch sensor layer and under the flexible printed circuit board , wherein the touch sensor layer is located between the cover and the light guide film, and wherein light emittable by the light-emitting element is transmitted to the transparent icon through the light guide film by the light-emitting element being adjacent to an edge of the light guide film , and the light emitted by the light-emitting element enters the light guide film from the edge of the light guide film ; and a housing having a housing opening , wherein the cover of the touch module is disposed on the housing and covering the housing opening of the housing so as to construct an accommodating space (S) with the housing , and wherein the touch sensor layer , the flexible printed circuit board , the light-emitting element and the light guide film of the touch module are located in the accommodating space (S). a touch module , comprising: a cover having at least one transparent icon ; a touch sensor layer disposed under the cover ; and a flexible printed circuit board , disposed under the cover and electrically connected to the touch sensor layer ; a cover having at least one transparent icon ; a touch sensor layer disposed under the cover ; and a flexible printed circuit board , disposed under the cover and electrically connected to the touch sensor layer ; a light-emitting element mounted on the flexible printed circuit board , wherein the flexible printed circuit board is located between the cover and the light-emitting element ; and a light guide film , disposed under the touch sensor layer and under the flexible printed circuit board , wherein the touch sensor layer is located between the cover and the light guide film, and wherein light emittable by the light-emitting element is transmitted to the transparent icon through the light guide film by the light-emitting element being adjacent to an edge of the light guide film , and the light emitted by the light-emitting element enters the light guide film from the edge of the light guide film ; and a housing having a housing opening , wherein the cover of the touch module is disposed on the housing and covering the housing opening of the housing so as to construct an accommodating space (S) with the housing , and wherein the touch sensor layer , the flexible printed circuit board , the light-emitting element and the light guide film of the touch module are located in the accommodating space (S).
An indoor unit apparatus for air conditioners including: an installation plate that is secured to an indoor wall surface; and an indoor unit that is attached to the installation plate , wherein the installation plate includes a linear section projecting on an indoor side and linearly extending in a horizontal direction, and wherein the indoor unit includes a clamping section that clamps the linear section in a vertical direction, a unit main body section that is secured to the installation plate , and a unit cover section that covers a surface of the unit main body section on the indoor side, characterized in that the clamping section includes a first clamping section that is provided at the unit main body section , and a second clamping section that is provided at the unit cover section , and the first clamping section and the second clamping section face each other in the vertical direction, the indoor unit comprises a clamped state maintaining section that maintains a state in which the linear section is clamped with the first clamping section and the second clamping section in the vertical direction, by inserting a claw portion provided on the unit cover section into a claw hole portion provided on the unit main body section . an installation plate that is secured to an indoor wall surface; and an indoor unit that is attached to the installation plate , wherein the installation plate includes a linear section projecting on an indoor side and linearly extending in a horizontal direction, and wherein the indoor unit includes a clamping section that clamps the linear section in a vertical direction, a unit main body section that is secured to the installation plate , and a unit cover section that covers a surface of the unit main body section on the indoor side, characterized in that the clamping section includes a first clamping section that is provided at the unit main body section , and a second clamping section that is provided at the unit cover section , and the first clamping section and the second clamping section face each other in the vertical direction, the indoor unit comprises a clamped state maintaining section that maintains a state in which the linear section is clamped with the first clamping section and the second clamping section in the vertical direction, by inserting a claw portion provided on the unit cover section into a claw hole portion provided on the unit main body section .
An interlayer film for laminated glazing, constructed from at least two interlayer films based on plasticizer-containing polyvinyl butyral, characterized in that a first interlayer film contains a polyvinyl butyral with a proportion of polyvinyl acetate groups of 0.1 to 11 mol % and a proportion of polyvinyl alcohol groups of 17 to 22% by weight, and a second interlayer film contains a polyvinyl butyral with a proportion of polyvinyl acetate groups of between 5 and 8 mol % and a proportion of polyvinyl alcohol groups of 11.5 to 13% by weight.
A flow control module for controlling the flow in a hydronic system , wherein the hydronic system comprises - a primary side with a first port in fluid connection with an output of at least one source element , a second port in fluid connection with an input of the at least one source element , and at least one controllable primary side flow actuator for providing a primary side flow (q 1 ), - a secondary side with a third port in fluid connection with an input of at least one load element , a fourth port in fluid connection with an output of the at least one load element , and at least one controllable secondary side flow actuator for providing a secondary side flow (q 2 ), and - an intermediary transfer element between the primary side and the secondary side , wherein the intermediary transfer element is in fluid connection with the first port , the second port , the third port and the fourth port , characterised in that the flow control module is configured - to minimise the thermal power transfer of the intermediary transfer element from the first port to the second port and/or from the fourth port to the third port , and/or - to maximise the thermal power transfer of the intermediary transfer element from the first port to the third port and/or from the fourth port to the second port , by controlling, in a continuous or regularly closed-loop manner based on minimising a signed deviation value (ΔΔv) being correlated with the thermal power transfer of the intermediary transfer element , the primary side flow (q 1 ) by means of the at least one controllable primary side flow actuator and the secondary side flow (q 2 ) by means of the at least one controllable secondary side flow actuator , wherein the flow control module is configured to decrease the secondary side flow (q 2 ) if the signed deviation value (ΔΔv) is below a negative reference value and the primary side flow (q 1 ) cannot be increased. - a primary side with a first port in fluid connection with an output of at least one source element , a second port in fluid connection with an input of the at least one source element , and at least one controllable primary side flow actuator for providing a primary side flow (q 1 ), - a secondary side with a third port in fluid connection with an input of at least one load element , a fourth port in fluid connection with an output of the at least one load element , and at least one controllable secondary side flow actuator for providing a secondary side flow (q 2 ), and - an intermediary transfer element between the primary side and the secondary side , wherein the intermediary transfer element is in fluid connection with the first port , the second port , the third port and the fourth port , - to minimise the thermal power transfer of the intermediary transfer element from the first port to the second port and/or from the fourth port to the third port , and/or - to maximise the thermal power transfer of the intermediary transfer element from the first port to the third port and/or from the fourth port to the second port ,
A process for detecting an analyte that is able to generate H 2 O 2 in a sample, the process comprising the steps of: S1. providing a sensor , the sensor comprising: a. a conductive material ; b. a first electrode material superimposing at least a part of the conductive material to form a working electrode , wherein the first electrode material is adapted to perform at least one detection reaction when the analyte is present in the sample, and wherein H 2 O 2 is generated in the detection reaction, wherein the first electrode material comprises Mn 2 O 3 particles; and wherein the first electrode material further comprises an enzyme, wherein the enzyme is an oxidase ; S2. applying a voltage to the working electrode ; wherein the voltage is selected from the voltage range at which H 2 O 2 in the sample will be reduced at the working electrode thereby generating an electrical current, wherein the voltage is in a range of from 50 to 150 mV if compared to a reference electrode comprising Ag/AgCl with 3 M KCl, the process further comprising the detection of the electrical current, wherein the electrical current corresponds to a measure of a concentration of the analyte in the sample. S1. providing a sensor , the sensor comprising: a. a conductive material ; b. a first electrode material superimposing at least a part of the conductive material to form a working electrode , wherein the first electrode material is adapted to perform at least one detection reaction when the analyte is present in the sample, and wherein H 2 O 2 is generated in the detection reaction, wherein the first electrode material comprises Mn 2 O 3 particles; and wherein the first electrode material further comprises an enzyme, wherein the enzyme is an oxidase ; a. a conductive material ; b. a first electrode material superimposing at least a part of the conductive material to form a working electrode , S2. applying a voltage to the working electrode ; wherein the voltage is selected from the voltage range at which H 2 O 2 in the sample will be reduced at the working electrode thereby generating an electrical current, wherein the voltage is in a range of from 50 to 150 mV if compared to a reference electrode comprising Ag/AgCl with 3 M KCl, the process further comprising the detection of the electrical current, wherein the electrical current corresponds to a measure of a concentration of the analyte in the sample. wherein the voltage is selected from the voltage range at which H 2 O 2 in the sample will be reduced at the working electrode thereby generating an electrical current, wherein the voltage is in a range of from 50 to 150 mV if compared to a reference electrode comprising Ag/AgCl with 3 M KCl,