mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a knitted component , comprising: moving a first feeder in a first direction to form a first course of the knitted component ; moving a second feeder along the first course to a first position such that a set of inlaid strands is inlaid through the first course in the first direction , the set of inlaid strands comprising a first inlaid strand and a second inlaid strand ; characterised by holding the second feeder in the first position ; and moving the first feeder along the first direction while the second feeder is held in the first position such that, as additional courses are formed, the first inlaid strand and the second inlaid strand are respectively inlaid through first and second wales that extend in a second direction , the second direction being perpendicular to the first direction . moving a first feeder in a first direction to form a first course of the knitted component ; moving a second feeder along the first course to a first position such that a set of inlaid strands is inlaid through the first course in the first direction , the set of inlaid strands comprising a first inlaid strand and a second inlaid strand ; characterised by holding the second feeder in the first position ; and moving the first feeder along the first direction while the second feeder is held in the first position such that, as additional courses are formed, the first inlaid strand and the second inlaid strand are respectively inlaid through first and second wales that extend in a second direction , the second direction being perpendicular to the first direction .
Outdoor fitness apparatus , in particular a bench press, comprising a handle borne in a movable manner on a stationary part of the outdoor fitness apparatus , wherein transverse forces acting on the handle are diverted via a rotational joint into the stationary part and wherein the rotational joint fastens the handle on the stationary part of the outdoor fitness apparatus , wherein a weight element is attached to the handle , wherein the weight element is held on the handle so as to be displaceable in the longitudinal direction of the handle characterised in that the handle at least approximately forms a circular arc section so that a weight element positioned at one end of the handle can be pushed over a vertex of the handle .
A thin-plate substrate holding finger for holding a thin-plate substrate in form of a semiconductor wafer (W) during movement from a container for storing a plurality of semiconductor wafers (W) in a horizontal state with a surface to be processed facing upward to a processing device and for ejecting an inert gas to a surface to be processed of the thin-plate substrate held by the holding finger , comprising: a finger body being internally formed with a flow path for circulating the inert gas, the finger body being provided with a purge portion for ejecting the inert gas on the thin-plate substrate held by the holding finger , said purge portion having a size the same as or larger than that of the thin-plate substrate and having a plurality of ejection ports communicating with the flow path and being disposed on a surface of the finger body opposing the surface to be processed of the thin-plate surface held by the holding finger for ejecting an inert gas onto the entire surface to be processed of the thin-plate substrate held by the holding finger and filling the space formed by the holding finger between the entire surface to be processed of the thin-plate substrate held by the holding finger and the holding finger with the inert gas; a piping member providing communication between an inert gas supply source and the flow path; an abutting member being disposed on the surface of the finger body on which the ejection ports are formed, and abutting a peripheral portion of the thin-plate substrate; a clamp member being disposed to be movable forward and backward with respect to the thin-plate substrate for abutting the peripheral portion of the thin-plate substrate; and a clamp mechanism for moving the clamp member forward and backward. a finger body being internally formed with a flow path for circulating the inert gas, the finger body being provided with a purge portion for ejecting the inert gas on the thin-plate substrate held by the holding finger , said purge portion having a size the same as or larger than that of the thin-plate substrate and having a plurality of ejection ports communicating with the flow path and being disposed on a surface of the finger body opposing the surface to be processed of the thin-plate surface held by the holding finger for ejecting an inert gas onto the entire surface to be processed of the thin-plate substrate held by the holding finger and filling the space formed by the holding finger between the entire surface to be processed of the thin-plate substrate held by the holding finger and the holding finger with the inert gas; a piping member providing communication between an inert gas supply source and the flow path; an abutting member being disposed on the surface of the finger body on which the ejection ports are formed, and abutting a peripheral portion of the thin-plate substrate; a clamp member being disposed to be movable forward and backward with respect to the thin-plate substrate for abutting the peripheral portion of the thin-plate substrate; and a clamp mechanism for moving the clamp member forward and backward.
A separation assembly for a food product separating machine configured to separate meat product from bone product, the assembly comprising: a chamber defined by a circumferential side wall , a longitudinal axis , and a radius (R); a plurality of apertures disposed in the circumferential side wall; characterized by , at least one V-shaped groove disposed along an inner surface of the circumferential side wall, the V-shaped groove defined by a vertex , two legs extending from the vertex, and an angle bisector of the vertex; and the V-shaped groove formed in the inner surface such that the angle bisector is tilted relative to the radius of the chamber. a chamber defined by a circumferential side wall , a longitudinal axis , and a radius (R); a plurality of apertures disposed in the circumferential side wall; characterized by , at least one V-shaped groove disposed along an inner surface of the circumferential side wall, the V-shaped groove defined by a vertex , two legs extending from the vertex, and an angle bisector of the vertex; and the V-shaped groove formed in the inner surface such that the angle bisector is tilted relative to the radius of the chamber.
A stool specimen test device (A) comprising a sampling verification section (1-5), a sample suction section (1-4) for collecting a sample from a sampling container and delivering the collected sample to the sampling verification section (1-5), the sampling verification section configured to detect a sample without a collected stool specimen based on a comparison result of the absorbance of the sample measured at a first wavelength and a threshold determined in advance, wherein the threshold is determined based on the absorbance of a solution in which the collected stool specimen is suspended measured at the first wavelength, and a sample test section (1-6) for detecting fecal occult blood contained in the sample, wherein the sample contains a sampling buffer and can further contain a stool specimen.
Motor vehicle structure , with - preferably a chassis comprising two longitudinal support members , - a drive axle , - at least one drive unit comprising a drive gear and/or a drive motor for driving the drive axle , and - at least one bearing structure , which is rotatably mounted about an axis of rotation (X) and serves for supporting the drive axle , wherein: the drive unit is rotatably mounted about the axis of rotation (X), the drive unit has a gravity center and the gravity center substantially coincides with the axis of rotation (X), and the bearing structure is rotatably mounted about a first rotary bearing (4.1), characterized in that the drive unit is rotatably mounted about a second rotary bearing (3.1). - preferably a chassis comprising two longitudinal support members , - a drive axle , - at least one drive unit comprising a drive gear and/or a drive motor for driving the drive axle , and - at least one bearing structure , which is rotatably mounted about an axis of rotation (X) and serves for supporting the drive axle , the drive unit is rotatably mounted about the axis of rotation (X), the drive unit has a gravity center and the gravity center substantially coincides with the axis of rotation (X), and the bearing structure is rotatably mounted about a first rotary bearing (4.1),
A computer-implemented method for optimizing performance of a communication session, the method comprising: aggregating routing awareness for multiple autonomous networks , the routing awareness specifying whether individual networks of the multiple autonomous networks support a protocol for propagating routing awareness for routing of a communication session ; receiving an indication of a routing path for a communication session ; ascertaining that a particular autonomous network along the routing path for the communication session is not supportive of the protocol for propagating routing awareness for routing the communication session , and identifying a different autonomous network that is available for routing the communication session and that is supportive of the protocol, by checking an ID of the autonomous networks against a network database and querying the autonomous networks as to whether they are a protocol-supportive network; controlling routing of the communication session by updating the routing awareness of the communication session to indicate that the different autonomous network that supports the protocol for propagating routing awareness is preferred for routing the communication session over the particular autonomous network that is not supportive of the protocol; and propagating the updated routing awareness to one or more of the multiple autonomous networks independently of a data stream of the communication session thereby causing performance optimization of the communication session . aggregating routing awareness for multiple autonomous networks , the routing awareness specifying whether individual networks of the multiple autonomous networks support a protocol for propagating routing awareness for routing of a communication session ; receiving an indication of a routing path for a communication session ; ascertaining that a particular autonomous network along the routing path for the communication session is not supportive of the protocol for propagating routing awareness for routing the communication session , and identifying a different autonomous network that is available for routing the communication session and that is supportive of the protocol, by checking an ID of the autonomous networks against a network database and querying the autonomous networks as to whether they are a protocol-supportive network; controlling routing of the communication session by updating the routing awareness of the communication session to indicate that the different autonomous network that supports the protocol for propagating routing awareness is preferred for routing the communication session over the particular autonomous network that is not supportive of the protocol; and propagating the updated routing awareness to one or more of the multiple autonomous networks independently of a data stream of the communication session thereby causing performance optimization of the communication session .
Method for operating an electrical circuit , in particular a convertor, wherein the circuit has a mains-side power convertor coupled to a capacitor , wherein the mains-side power convertor has at least two series connections between at least two power semiconductor components (18a, 18b; 18c, 18d; 18e, 18f), wherein the series connections are each connected in parallel between a positive potential and a negative potential to the capacitor , and wherein the mains-side power convertor is coupled to an energy supply network , characterised in that the DC voltage (Udc) applied to the capacitor is determined, that a maximum voltage (Udcmax) is predefined, wherein, if the maximum voltage (Udcmax) is exceeded, the power semiconductor components are switched into their non-conductive state, that further switching of the power semiconductor components into their non-conductive state is blocked for at least as long as the maximum voltage (Udcmax) is exceeded and the normal operation of the electrical circuit is temporarily interrupted, and that, if the DC voltage (Udc) is greater than the maximum voltage (Udcmax) and an AC voltage (Unet) present at one of the phases of the energy supply network is in the maximum amount, at least two of the power semiconductor components are switched into their conductive state, which results in at least one electrical connection between the positive potential and the negative potential via the power semiconductor components which have been switched into their conductive state and the energy supply network , such that the capacitor is discharged in the direction of the energy supply network , and wherein the power semiconductor components switched into their conductive state are only switched back into their non-conductive state if the DC voltage (Udc) is smaller than the maximum voltage (Udcmax).
A detector for an inspection system, comprising: at least one first scintillator configured to, in response to interaction with a pulse of inspection radiation, re-emit first light in a first wavelength domain; at least one second scintillator configured to, in response to interaction with the pulse of inspection radiation, re-emit second light in a second wavelength domain different from the first wavelength domain; at least one first sensor configured to measure the first light and not the second light; and at least one second sensor configured to measure at least the second light, characterized in that the at least one second scintillator is located adjacent the at least one first scintillator , along a direction transverse to a direction of propagation of the inspection radiation, wherein the at least one first sensor and the at least one second sensor are located on a same side of the at least one first scintillator or the at least one second scintillator, along a depth of the first scintillator or along a depth of the second scintillator, the depth of the first scintillator or of the second scintillator extending in the direction of propagation of the inspection radiation. at least one first scintillator configured to, in response to interaction with a pulse of inspection radiation, re-emit first light in a first wavelength domain; at least one second scintillator configured to, in response to interaction with the pulse of inspection radiation, re-emit second light in a second wavelength domain different from the first wavelength domain; at least one first sensor configured to measure the first light and not the second light; and at least one second sensor configured to measure at least the second light, characterized in that the at least one second scintillator is located adjacent the at least one first scintillator , along a direction transverse to a direction of propagation of the inspection radiation, wherein the at least one first sensor and the at least one second sensor are located on a same side of the at least one first scintillator or the at least one second scintillator, along a depth of the first scintillator or along a depth of the second scintillator, the depth of the first scintillator or of the second scintillator extending in the direction of propagation of the inspection radiation.
A transport refrigeration system comprising: a tractor vehicle having an engine; a trailer operably coupled to the tractor vehicle; a transport refrigeration unit mounted to a front surface of the trailer adjacent the tractor vehicle; and at least one shield (50; 52, 54) mounted to the tractor or the trailer; characterised in that the at least one shield is configured to divert discharged hot air from the vehicle engine away from a flow path towards a condenser air inlet of the transport refrigeration unit. a tractor vehicle having an engine; a trailer operably coupled to the tractor vehicle; a transport refrigeration unit mounted to a front surface of the trailer adjacent the tractor vehicle; and at least one shield (50; 52, 54) mounted to the tractor or the trailer; characterised in that the at least one shield is configured to divert discharged hot air from the vehicle engine away from a flow path towards a condenser air inlet of the transport refrigeration unit.
Method of generating an application package (PackApp*) for a diagnostic tool (TOOL) configured to check the compatibility (Step Y) of the application package with the vehicle control unit, the method comprising generating an application file (Appfile) containing instructions for a vehicle ECU, the application file comprising - a first header (AAH) comprising at least one field showing a CRC value calculated on the entire application file, - an executable portion (Application), the method further comprises a step (Step1) of generating a modified application file (Appfile*) comprising - said first heading (AAH), unaltered, and - the executable portion (Application*) compressed using a lossless compression algorithm, - a second step (Step 2) of putting forward said modified application file (Appfile*), a second header (THTD*) containing instructions to cause - the transfer (Step 3) of said modified application file (Appfile*) through two distinct transfers respectively of said first header (AHH) and said executable portion (Application*) compressed, and to cause - the execution of the following steps by the vehicle control unit: + (Step 4) prior decompression of the compressed executable portion (Application*) and + (Step 6) storage, in a first non-volatile memory (SM1) of the vehicle control unit, of the executable portion (Application), decompressed, consecutively to said first header (AHH). - a first header (AAH) comprising at least one field showing a CRC value calculated on the entire application file, - an executable portion (Application), - said first heading (AAH), unaltered, and - the executable portion (Application*) compressed using a lossless compression algorithm, - a second step (Step 2) of putting forward said modified application file (Appfile*), a second header (THTD*) containing instructions to cause - the transfer (Step 3) of said modified application file (Appfile*) through two distinct transfers respectively of said first header (AHH) and said executable portion (Application*) compressed, and to cause - the execution of the following steps by the vehicle control unit: + (Step 4) prior decompression of the compressed executable portion (Application*) and + (Step 6) storage, in a first non-volatile memory (SM1) of the vehicle control unit, of the executable portion (Application), decompressed, consecutively to said first header (AHH). + (Step 4) prior decompression of the compressed executable portion (Application*) and + (Step 6) storage, in a first non-volatile memory (SM1) of the vehicle control unit, of the executable portion (Application), decompressed, consecutively to said first header (AHH).
Position-indicating device for indicating the movement of a portion of a support element which is movable relative to a fixed portion, the support element being, in particular, a spring or constant hanger, a snubber , a vibration damper and/or an articulated strut, comprising - a mechanical movement-transmitting device, which can be attached to the support element on the input side, for the transmission of the movement of the movable portion of the support element; - an indicating device for indicating the movement of the movable portion of the support element, wherein the movement-transmitting device is coupled to the indicating device on the output side and the indicating device has a hollow cylinder and a driver which is movably mounted in the hollow cylinder and is movement-coupled to the movement-transmitting device, and wherein the hollow cylinder comprises a longitudinal slot in which a radially outwardly extending transverse bolt extends which is moved along with the driver and which is designed to displace at least one extreme-value indicator arranged radially outside with respect to the hollow cylinder. - a mechanical movement-transmitting device, which can be attached to the support element on the input side, for the transmission of the movement of the movable portion of the support element; - an indicating device for indicating the movement of the movable portion of the support element, wherein the movement-transmitting device is coupled to the indicating device on the output side and the indicating device has a hollow cylinder and a driver which is movably mounted in the hollow cylinder and is movement-coupled to the movement-transmitting device, and wherein the hollow cylinder comprises a longitudinal slot in which a radially outwardly extending transverse bolt extends which is moved along with the driver and which is designed to displace at least one extreme-value indicator arranged radially outside with respect to the hollow cylinder.
A memory device , comprising: a stack of memory arrays, the stack including multiple vertical memory vaults ; an activity tracker configured to monitor levels of activity of at least one vertical memory vault ; a logic controller comprising multiple memory vault controllers respectively communicatively coupled to corresponding memory vaults , wherein at least one of the multiple memory vault controllers is operable to adjust a power state of a portion of the stack of memory arrays in response to the activity tracker ; multiple serialized communication link interfaces to couple the multiple memory vault controllers to a host processor ; and a matrix switch enabling cross-connecting each of the multiple serialized communication link interfaces to the selected memory vault controller of the multiple memory vault controllers . a stack of memory arrays, the stack including multiple vertical memory vaults ; an activity tracker configured to monitor levels of activity of at least one vertical memory vault ; a logic controller comprising multiple memory vault controllers respectively communicatively coupled to corresponding memory vaults , wherein at least one of the multiple memory vault controllers is operable to adjust a power state of a portion of the stack of memory arrays in response to the activity tracker ; multiple serialized communication link interfaces to couple the multiple memory vault controllers to a host processor ; and a matrix switch enabling cross-connecting each of the multiple serialized communication link interfaces to the selected memory vault controller of the multiple memory vault controllers .