mhurhangee/patent-ind-claim-en huggingface dataset:
An industrial vehicle comprising: a frame ; a counterweight body that is connected to a rear part of the frame ; and a drive device that drives rear wheels , characterized in that the counterweight body is formed by casting, the drive device includes a drive device body and a pair of damping members that is mounted to the counterweight body on right and left sides of the drive device body and allows relative motion between the counterweight and the rear wheels , the counterweight body has a first mounting hole and a second mounting hole through which rear ends of the pair of respective damping members are mounted to the counterweight body , wherein the first mounting hole and the second mounting hole are formed coaxially with each other and are respectively disposed on a left mounting portion and right mounting portion of the counterweight body , wherein the left mounting portion and the right mounting portion are formed by machining, and wherein the first mounting hole and the second mounting hole are formed by the machining, and the counterweight body has a plurality of reference portions being arranged as a reference to which the counterweight body is positioned when the machining is provided on the counterweight body . a frame ; a counterweight body that is connected to a rear part of the frame ; and a drive device that drives rear wheels , characterized in that the counterweight body is formed by casting, the drive device includes a drive device body and a pair of damping members that is mounted to the counterweight body on right and left sides of the drive device body and allows relative motion between the counterweight and the rear wheels , the counterweight body has a first mounting hole and a second mounting hole through which rear ends of the pair of respective damping members are mounted to the counterweight body , wherein the first mounting hole and the second mounting hole are formed coaxially with each other and are respectively disposed on a left mounting portion and right mounting portion of the counterweight body , wherein the left mounting portion and the right mounting portion are formed by machining, and wherein the first mounting hole and the second mounting hole are formed by the machining, and the counterweight body has a plurality of reference portions being arranged as a reference to which the counterweight body is positioned when the machining is provided on the counterweight body .
A pump system for lacteal extraction comprising: a mechanical safety valve (140A, 140B, 210a, 310, 310', 310'", 310"", 310"'", 310""") within a milk flow path of the system, wherein the safety valve (140A, 140B, 210a, 310', 310'", 310"", 310'"", 310""") is configured to automatically actuate in response to specific vacuum ranges that can cause an over-vacuum condition, the pump system further comprising an adapter connected by tubing to a vacuum pump , the adapter further connected to a collection container , wherein the mechanical safety valve (140A, 140B, 210a, 310', 310'", 310"", 310'"", 310""") is in the adapter , wherein the adapter comprises an opening on a bottom wall of the adapter , and the mechanical safety valve (140A, 140B, 210a, 310', 310'", 310"", 310'"", 310""") is at the opening , and wherein the mechanical safety valve (140A, 140B, 210a, 310', 310'", 310"", 310'"", 310""") allows fluid flow by folding. a mechanical safety valve (140A, 140B, 210a, 310, 310', 310'", 310"", 310"'", 310""") within a milk flow path of the system, wherein the safety valve (140A, 140B, 210a, 310', 310'", 310"", 310'"", 310""") is configured to automatically actuate in response to specific vacuum ranges that can cause an over-vacuum condition, the pump system further comprising an adapter connected by tubing to a vacuum pump , the adapter further connected to a collection container , wherein the mechanical safety valve (140A, 140B, 210a, 310', 310'", 310"", 310'"", 310""") is in the adapter , wherein the adapter comprises an opening on a bottom wall of the adapter , and the mechanical safety valve (140A, 140B, 210a, 310', 310'", 310"", 310'"", 310""") is at the opening , and wherein the mechanical safety valve (140A, 140B, 210a, 310', 310'", 310"", 310'"", 310""") allows fluid flow by folding.
A device for indicating when a first element is releasable from a second element , comprising the first element , the second element and a locking device for locking the first element to the second element , wherein the locking device comprises an axis (A) of rotation and a protrusion for locking interaction with a projection of the second element , wherein the locking device is connected to the first element and is rotatable around the axis (A) of rotation between an unlocked position and a locked position in which the protrusion of the locking device engages the projection of the second element , wherein the locking device comprises a first abutment surface being offset from the axis (A) of rotation, and wherein the second element comprises a second abutment surface arranged in a position for engaging the first abutment surface of the locking device when the locking device has been rotated to the unlocked position, in which unlocked position the protrusion of the locking device is disengaged from the projection of the second element , and, by further rotation of the locking device , displacing the locking device in relation to the second element while bringing the first element along therewith so as to displace the first and second elements in relation to each other, characterised in that the first and second elements comprise flexible connecting means for detachably connecting the first element with the second element through inherent flexible properties thereof, and wherein said flexible connecting means are positioned to detachably connect the first and second elements when the first element is displaced in relation to the second element .
A freezer cabinet for storing frozen confectionery products, the freezer cabinet comprising: - a chamber having an opening substantially sealed by an upper surface panel ; and - a further panel inside the chamber being spaced away from the upper surface panel and substantially parallel to the upper surface panel in at least one direction; wherein: - at least part of the upper surface panel and further panel is transparent such that at least part of the inside of the chamber is visible through the upper surface panel and further panel ; - the upper surface panel comprises at least one slideably openable section; - the further panel comprises at least one slideably openable section; - the further panel covers between 50% and 88% of the surface area of the opening in a horizontal plane at a height of the lowest part of the further panel ; - the further panel creates a quiescent region between the upper surface panel and further panel wherein the quiescent region is in gaseous communication with the air in the chamber; - the sum of the thickness of the upper surface panel and the further panel is less than 90% of the height thickness of the upper surface panel , quiescent region and further panel ; - the chamber comprises a side wall and a coolant evaporator mounted in and/or on the side wall ; - the height distance ( H ) between the further panel , measured from the lowest face of the further panel facing the chamber , and the highest part of the evaporator is at least 5 mm; and - the cabinet does not comprise a forced-air cooling system. - a chamber having an opening substantially sealed by an upper surface panel ; and - a further panel inside the chamber being spaced away from the upper surface panel and substantially parallel to the upper surface panel in at least one direction; - at least part of the upper surface panel and further panel is transparent such that at least part of the inside of the chamber is visible through the upper surface panel and further panel ; - the upper surface panel comprises at least one slideably openable section; - the further panel comprises at least one slideably openable section; - the further panel covers between 50% and 88% of the surface area of the opening in a horizontal plane at a height of the lowest part of the further panel ; - the further panel creates a quiescent region between the upper surface panel and further panel wherein the quiescent region is in gaseous communication with the air in the chamber; - the sum of the thickness of the upper surface panel and the further panel is less than 90% of the height thickness of the upper surface panel , quiescent region and further panel ; - the chamber comprises a side wall and a coolant evaporator mounted in and/or on the side wall ; - the height distance ( H ) between the further panel , measured from the lowest face of the further panel facing the chamber , and the highest part of the evaporator is at least 5 mm; and - the cabinet does not comprise a forced-air cooling system.
A method of operating a blast furnace, comprising separating carbon dioxide gas from a by-product gas discharged from the blast furnace, generating a regenerative methane gas from the carbon dioxide gas, and blowing a blast gas and a reducing agent into the blast furnace from a tuyere, wherein the blast gas is oxygen gas and the regenerative methane gas is used as at least part of the reducing agent, wherein a consumption rate of circulating carbon atoms in the reducing agent is 55 kg/t or more, wherein the consumption rate of circulating carbon atoms is a carbon equivalent mass of the regenerative methane gas that is blown into the blast furnace as the reducing agent for producing 1 t of hot metal, and is obtained by the following equation: [Consumption rate of circulating carbon atoms (kg/t)]=[Mass of methane in regenerative methane gas blown into blast furnace as reducing agent (kg)]×(12/16)+[Production amount of hot metal (t)]. separating carbon dioxide gas from a by-product gas discharged from the blast furnace, generating a regenerative methane gas from the carbon dioxide gas, and blowing a blast gas and a reducing agent into the blast furnace from a tuyere, wherein the blast gas is oxygen gas and the regenerative methane gas is used as at least part of the reducing agent, wherein a consumption rate of circulating carbon atoms in the reducing agent is 55 kg/t or more, wherein the consumption rate of circulating carbon atoms is a carbon equivalent mass of the regenerative methane gas that is blown into the blast furnace as the reducing agent for producing 1 t of hot metal, and is obtained by the following equation: [Consumption rate of circulating carbon atoms (kg/t)]=[Mass of methane in regenerative methane gas blown into blast furnace as reducing agent (kg)]×(12/16)+[Production amount of hot metal (t)].
Lactobacillus paracasei CNCM 1-3689, for use in treating an Enterococcus faecalis infection in the intestinal microbiota of a subject having an antibiotic-induced dysbiosis.
An assembly process for assembling a basin using a molding tool operable between an open position and a closed position, the molding tool having a female molding insert , a male molding insert , and an insert jig , the female molding insert and the male molding insert cooperating to define a mold cavity when the molding tool is in the closed position, the female molding insert having an aperture, the insert jig having a sleeve and a cylinder , the cylinder repositionable within the sleeve and having an end with an end face and a pin protruding from the end face , the assembly process comprising: applying adhesive to the pin ; aligning the pin with an aperture of a basin rim insert ; pressing the basin rim insert towards the end face such that the pin is received within the aperture of the basin rim insert ; filling the mold cavity with molding material such that the molding material encapsulates at least a portion of the basin rim insert , the molding material forming the basin within the mold cavity ; placing the molding tool in the open position; and removing the basin from the molding tool after placing the molding tool in the open position, the basin rim insert being at least partially encapsulated by the basin . applying adhesive to the pin ; aligning the pin with an aperture of a basin rim insert ; pressing the basin rim insert towards the end face such that the pin is received within the aperture of the basin rim insert ; filling the mold cavity with molding material such that the molding material encapsulates at least a portion of the basin rim insert , the molding material forming the basin within the mold cavity ; placing the molding tool in the open position; and removing the basin from the molding tool after placing the molding tool in the open position, the basin rim insert being at least partially encapsulated by the basin .
An air-conditioner comprising: a housing ; an air blowing fan configured to send air to an outdoor heat exchanger ; a fixing member configured to fix the air blowing fan to the housing ; and a control section configured to control an acceleration or the number of rotations per unit time in rotation of the air blowing fan , wherein a rotation direction of the air blowing fan includes at least a first direction of loosening the fixing member due to the rotation of the air blowing fan , and the control section controls the acceleration or the number of rotations per unit time in the rotation of the air blowing fan such that the acceleration of the rotation of the air blowing fan in the first direction is lower than a deceleration for stopping the rotation of the air blowing fan in the first direction. a housing ; an air blowing fan configured to send air to an outdoor heat exchanger ; a fixing member configured to fix the air blowing fan to the housing ; and a control section configured to control an acceleration or the number of rotations per unit time in rotation of the air blowing fan , wherein a rotation direction of the air blowing fan includes at least a first direction of loosening the fixing member due to the rotation of the air blowing fan , and the control section controls the acceleration or the number of rotations per unit time in the rotation of the air blowing fan such that the acceleration of the rotation of the air blowing fan in the first direction is lower than a deceleration for stopping the rotation of the air blowing fan in the first direction.
An emergency call, E-call, system, comprising: an E-call battery including first and second battery banks ; a temperature data acquisition controller configured to acquire battery usage environment temperature data, at regular intervals, from an external system connected to the E-call battery; a parallel connection switch configured to control an electrical parallel connection between the first and second battery banks of the E-call battery; and a switch controller configured to control on/off of the parallel connection switch based on a battery usage environment temperature value acquired by the temperature data acquisition controller , wherein the system is configured to output the voltage of one battery bank when the parallel connection switch is off. an E-call battery including first and second battery banks ; a temperature data acquisition controller configured to acquire battery usage environment temperature data, at regular intervals, from an external system connected to the E-call battery; a parallel connection switch configured to control an electrical parallel connection between the first and second battery banks of the E-call battery; and a switch controller configured to control on/off of the parallel connection switch based on a battery usage environment temperature value acquired by the temperature data acquisition controller , wherein the system is configured to output the voltage of one battery bank when the parallel connection switch is off.
A label picking arrangement comprising at least one anvil having at least one cavity and at least one picking element having a picking surface , the label picking arrangement is connectable to an under pressure source in use, wherein the at least one cavity being surrounded at least partially with at least one support surface being provided, at least intermittently, with under pressure and each picking element is provided, at least intermittently, with under pressure, wherein each picking element is movable into corresponding cavity characterised in that the label picking arrangement is adapted to be able to pick labels from a web with pre-cut labels still attached to the web , for example by micro material bridges, and the picking surface and/or the support surface are made of high friction material having protrusions attached at a surface , the protrusions are of the same length and their ends are making up a parallel surface .
An internal combustion engine (ICE) system , comprising an expander for expanding exhaust gases arising from a combustion reaction of the ICE system, said expander having an expander cylinder for accommodating a reciprocating expander piston , and further at least one valve for regulating a flow of fluid medium; the ICE system further comprising a rotatable crankshaft for operating the reciprocating expander piston, characterized in that the rotatable crankshaft comprises an integrated cam lobe arranged to operate the at least one valve of the expander.
An information processing apparatus comprising: a physical unclonable function, i.e. PUF, to generate at least one unique key using a process variation in a semiconductor manufacturing process; and an encryption unit to encrypt at least one of a password received from a user and bio-information using the unique key to generate an identification key, characterized in that the PUF generates the unique key using whether an interlayer contact formed between conductive layers of a semiconductor short-circuits the conductive layers, wherein the PUF is configured to set the size of the interlayer contact formed between the conductive layers of the semiconductor such that a difference between a probability of the interlayer contact short-circuiting the conductive layers and a probability of the interlayer contact not short-circuiting the conductive layers is within a preset error range, and wherein the PUF comprises N unit structures to generate a 1-bit digital value using a pair of conductive layers and one interlayer contact connecting the conductive layers and generates N-bit unique keys through the N unit structures, N being a natural number. a physical unclonable function, i.e. PUF, to generate at least one unique key using a process variation in a semiconductor manufacturing process; and an encryption unit to encrypt at least one of a password received from a user and bio-information using the unique key to generate an identification key, characterized in that the PUF generates the unique key using whether an interlayer contact formed between conductive layers of a semiconductor short-circuits the conductive layers, wherein the PUF is configured to set the size of the interlayer contact formed between the conductive layers of the semiconductor such that a difference between a probability of the interlayer contact short-circuiting the conductive layers and a probability of the interlayer contact not short-circuiting the conductive layers is within a preset error range, and wherein the PUF comprises N unit structures to generate a 1-bit digital value using a pair of conductive layers and one interlayer contact connecting the conductive layers and generates N-bit unique keys through the N unit structures, N being a natural number.
A method of operation performed by a network node that implements a mobility function entity for a core network of a cellular communications network , comprising: receiving , from a radio access node of the cellular communications network , first information indicative of one or more tracking areas supported by the radio access node and one or more network slices supported per tracking area by the radio access node ; determining one or more network slices that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the one or more tracking areas supported by the radio access node ; sending , to the radio access node , second information indicative of the one or more network slices that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of the at least one of the one or more tracking areas supported by the radio access node . receiving , from a radio access node of the cellular communications network , first information indicative of one or more tracking areas supported by the radio access node and one or more network slices supported per tracking area by the radio access node ; determining one or more network slices that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the one or more tracking areas supported by the radio access node ; sending , to the radio access node , second information indicative of the one or more network slices that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of the at least one of the one or more tracking areas supported by the radio access node .
A method for limiting an interference to a common electric power network, the interference being generated by a power electronics device (FC) connectable to the common electric power network, the power electronics device (FC) comprising at least one switch type component (V 1 ...V 6 ) being able to change an output voltage value (U, V, W) at a predefined permissible switching frequency range, characterized in that the method further comprises: measuring and recording, via a circuit, a common mode current (I CM ) as a function of a switching frequency (fsw) of the at least one switch type component (V 1 ...V 6 ) by scanning the permissible switching frequency range before starting the normal operation of the power electronics device (FC); and setting, via the circuit, the switching frequency (fsw) to be used of the at least one switch type component (V 1 ...V 6 ) to a frequency value (f L1 , f L2 ) from the permissible switching frequency range at which the common mode current (I CM ) has a local minimum value. measuring and recording, via a circuit, a common mode current (I CM ) as a function of a switching frequency (fsw) of the at least one switch type component (V 1 ...V 6 ) by scanning the permissible switching frequency range before starting the normal operation of the power electronics device (FC); and setting, via the circuit, the switching frequency (fsw) to be used of the at least one switch type component (V 1 ...V 6 ) to a frequency value (f L1 , f L2 ) from the permissible switching frequency range at which the common mode current (I CM ) has a local minimum value.